mhurhangee/ep-ind-claims huggingface dataset:
A gas supply assembly for an air mattress, comprising: a gas supplier comprising an engagement structure; and a gas communication device comprising a housing, an engagement member and a release member, wherein the housing comprises at least one gas inlet in gas communication with the gas supplier, the engagement member being arranged corresponding to the engagement structure, such that the housing may be connected to or removed from the gas supplier, characterized in that the release member is arranged as being deformable toward the gas supplier, such that the release member elastically deforms when the engagement structure and the engagement member are disengaged, thereby promoting the separation of the gas communication device from the gas supplier. a gas supplier comprising an engagement structure; and a gas communication device comprising a housing, an engagement member and a release member, wherein the housing comprises at least one gas inlet in gas communication with the gas supplier, the engagement member being arranged corresponding to the engagement structure, such that the housing may be connected to or removed from the gas supplier, characterized in that the release member is arranged as being deformable toward the gas supplier, such that the release member elastically deforms when the engagement structure and the engagement member are disengaged, thereby promoting the separation of the gas communication device from the gas supplier.
A liquid ejection head with an ejection port for ejecting liquid, comprising: a substrate including a heat generating portion for generating heat energy that is used to eject liquid from said ejection port, and a layer (7, 8) provided so as to cover said heat generating portion; and a member made of resin, the member including a wall of a liquid flow passage communicating with said ejection port; said layer (7, 8) contains a noble metal and; characterized in that said member is provided so as to come in contact with said layer (7, 8); a value of an atomic percent of said noble metal per unit volume of a portion (7, 8) coming in contact with said member of said layer (7, 8) is smaller than a value of an atomic percent of noble metal per unit volume of a portion (22, 30) corresponding to said heat generating portion of said layer (7, 8); and in that the portion (22, 30) corresponding to said heat generating portion of said layer (7, 8) contains the noble metal as a principal component. a substrate including a heat generating portion for generating heat energy that is used to eject liquid from said ejection port, and a layer (7, 8) provided so as to cover said heat generating portion; and a member made of resin, the member including a wall of a liquid flow passage communicating with said ejection port; said layer (7, 8) contains a noble metal and; characterized in that said member is provided so as to come in contact with said layer (7, 8); a value of an atomic percent of said noble metal per unit volume of a portion (7, 8) coming in contact with said member of said layer (7, 8) is smaller than a value of an atomic percent of noble metal per unit volume of a portion (22, 30) corresponding to said heat generating portion of said layer (7, 8); and in that the portion (22, 30) corresponding to said heat generating portion of said layer (7, 8) contains the noble metal as a principal component.
A method for use in a wireless transmitter, the method comprising: obtaining a set of information bits for wireless transmission; dividing the set of information bits into one or more subsets of information bits, wherein dividing the information bits into one or more subsets of information bits comprises dividing the information bits into nested subsets wherein each successive subset includes the information bits from a previous subset; for each subset of the one or more subsets of information bits, generating extra cyclic redundancy check, CRC, bits using a CRC polynomial capable of generating N CRC bits and wherein the extra CRC bits for each subset of information bits comprise less than N CRC bits, wherein generating extra CRC bits using the CRC polynomial comprises recursive generation wherein a set of extra CRC bits for a first subset of the one or more subsets of information bits are included in a second subset of the one or more subsets of information bits and used as input in a subsequent generation of extra CRC bits for the second subset of information bits.; generating a final set of N or less CRC bits for the set of information bits using the CRC polynomial; generating a set of coded bits by encoding the set of information bits for wireless transmission, together with the extra CRC bits and the final set of CRC bits, using a polar encoder; and transmitting the set of coded bits using a wireless transmitter. obtaining a set of information bits for wireless transmission; dividing the set of information bits into one or more subsets of information bits, wherein dividing the information bits into one or more subsets of information bits comprises dividing the information bits into nested subsets wherein each successive subset includes the information bits from a previous subset; for each subset of the one or more subsets of information bits, generating extra cyclic redundancy check, CRC, bits using a CRC polynomial capable of generating N CRC bits and wherein the extra CRC bits for each subset of information bits comprise less than N CRC bits, wherein generating extra CRC bits using the CRC polynomial comprises recursive generation wherein a set of extra CRC bits for a first subset of the one or more subsets of information bits are included in a second subset of the one or more subsets of information bits and used as input in a subsequent generation of extra CRC bits for the second subset of information bits.; generating a final set of N or less CRC bits for the set of information bits using the CRC polynomial; generating a set of coded bits by encoding the set of information bits for wireless transmission, together with the extra CRC bits and the final set of CRC bits, using a polar encoder; and transmitting the set of coded bits using a wireless transmitter.
A radio station comprising: radio communication means for communicating on a licensed frequency and an unlicensed frequency; control means for transmitting, to a radio terminal on the licensed frequency, control information associated with a Received Signal Strength Indicator, RSSI, measurement on the unlicensed frequency, characterized in that the control information includes: information indicating a second period, wherein the second period comprises a first period in which a signal can be transmitted and a third period in which the radio terminal is not needed to perform the RSSI measurement, the first period occurs periodically at a periodicity of the second period, and the third period follows the first period; and an offset value to indicate a subframe number and a System Frame Number, SFN, at which the first period is started, and the control means is further adapted to receive, from the radio terminal on the licensed frequency, a result of the RSSI measurement which is performed within the first period started at the subframe number and the SFN indicated by at least the offset value. radio communication means for communicating on a licensed frequency and an unlicensed frequency; control means for transmitting, to a radio terminal on the licensed frequency, control information associated with a Received Signal Strength Indicator, RSSI, measurement on the unlicensed frequency, characterized in that the control information includes: information indicating a second period, wherein the second period comprises a first period in which a signal can be transmitted and a third period in which the radio terminal is not needed to perform the RSSI measurement, the first period occurs periodically at a periodicity of the second period, and the third period follows the first period; and an offset value to indicate a subframe number and a System Frame Number, SFN, at which the first period is started, and information indicating a second period, wherein the second period comprises a first period in which a signal can be transmitted and a third period in which the radio terminal is not needed to perform the RSSI measurement, the first period occurs periodically at a periodicity of the second period, and the third period follows the first period; and an offset value to indicate a subframe number and a System Frame Number, SFN, at which the first period is started, and the control means is further adapted to receive, from the radio terminal on the licensed frequency, a result of the RSSI measurement which is performed within the first period started at the subframe number and the SFN indicated by at least the offset value.
Belt pretensioner with a linear drive comprising - a housing with a cavity, and - a gas generator fixed in the housing, which loads the cavity with a pressurized gas when activated, and - a cable, which runs through the cavity and is guided in a guidance arranged in the housing and - a piston/cylinder unit, wherein - the piston/cylinder unit is attached at the housing and closes the cavity in the housing, wherein - the cable is connected with one end with the piston and with the other end with one part of a seatbelt device, wherein - a sealing is provided which is arranged between the cable and the housing, wherein - the cable is protected at least partially in the section running through the cavity by a shielding, wherein - the sealing is arranged in the guidance of the housing, and - the shielding is realized by a bushing surrounding the cable, characterized in that: - the bushing abuts with its first face side, which is directed towards the guidance in axial direction at an abutment of the housing. - a housing with a cavity, and - a gas generator fixed in the housing, which loads the cavity with a pressurized gas when activated, and - a cable, which runs through the cavity and is guided in a guidance arranged in the housing and - a piston/cylinder unit, wherein - the piston/cylinder unit is attached at the housing and closes the cavity in the housing, wherein - the cable is connected with one end with the piston and with the other end with one part of a seatbelt device, wherein - a sealing is provided which is arranged between the cable and the housing, wherein - the cable is protected at least partially in the section running through the cavity by a shielding, wherein - the sealing is arranged in the guidance of the housing, and - the shielding is realized by a bushing surrounding the cable, characterized in that: - the bushing abuts with its first face side, which is directed towards the guidance in axial direction at an abutment of the housing.
A method for sizing a pipe end of a pipe by using a plug having a circular cross section and being constituted by a taper portion and a diameter equivalent portion, in which portion the diameter is not varied, continuously formed from a tip of the plug in succession; characterized in that an outer diameter of the taper portion gradually being expanded from the tip toward a rear end while satisfying the following formulas and; and the pipe being clamped by a chuck at a position in which the following formula is satisfied, when the ratio (t/D) of the thickness t and the outer diameter D of the pipe is 0.04 or less: 22 ≤ LR / D 1 × 0.01 / 2 ≤ 115 R 2 ≥ R 1 L / D > − 21.8 × t / D + 1.7 where the meanings of the respective symbols in the formulas are shown below: D1: the outer diameter of the rear end of the taper portion, which also corresponds to the outer diameter [mm] of the diameter equivalent portion, LR: the distance [mm] in the axial direction from the rear end of the taper portion to a position at which the outer diameter of the taper portion is represented by D1 × 0.99, R1: the taper angle [°] at the rear end of the taper portion, R2: the taper angle [°] at the position in which the outer diameter of the taper portion is represented by D1 × 0.99. t: the thickness of element pipe [mm] D: the outer diameter of element pipe [mm] L: the distance from the pipe end of the pipe on the side from which the plug is inserted to the clamped position by the chuck [mm]. D1: the outer diameter of the rear end of the taper portion, which also corresponds to the outer diameter [mm] of the diameter equivalent portion, LR: the distance [mm] in the axial direction from the rear end of the taper portion to a position at which the outer diameter of the taper portion is represented by D1 × 0.99, R1: the taper angle [°] at the rear end of the taper portion, R2: the taper angle [°] at the position in which the outer diameter of the taper portion is represented by D1 × 0.99. t: the thickness of element pipe [mm] D: the outer diameter of element pipe [mm] L: the distance from the pipe end of the pipe on the side from which the plug is inserted to the clamped position by the chuck [mm].
Apparatus for the radio coverage of a vehicle, usable in particular in the field of railway transport, comprising first means of communication installable on a vehicle and adapted to the radio reception/transmission of a first signal at input (S I1) and of a first signal at output (S O1) from/to at least one remote base radio station, second means of communication installable on said vehicle and adapted to the radio reception/transmission of a second signal at input (S I2) and of a second signal at output (S O2) from/to at least one appliance positioned inside said vehicle, and at least one repeater device positioned in between said first and said second means of communication (2, 3) and having at least one amplification unit in reception suitable for receiving said first signal at input (S I1) and for generating said second signal at output (S O2), at least one amplification unit in transmission adapted to receiving said second signal at input (S I2) and generating said first signal at output (S O1), and adjustment means for adjusting the power of the first signal at output (S O1) from said first means of communication based on the power measurement of said first signal at input (S I1), wherein said adjustment means comprise means of determination of the section attenuation value between said first means of communication and said base radio station based on said power measurement of the first signal at input (S I1), first means of definition of the power gain of said amplification unit in transmission, based on said determined section attenuation value, characterized in that said adjustment means comprises second means of definition of a maximum power threshold value of said first signal at output (S O1) based on the determined section attenuation, wherein starting with a predetermined reference value of the section attenuation, said maximum power threshold value is reduced by 1dB for every 1dB drop below said predetermined reference value in said determined section attenuation value, and wherein the power of said first signal at output (S O1) is detected and maintained below said maximum threshold value by means of an automatic level control unit operatively associated with said amplification unit in transmission.
A computer-implemented method for verifying a kernel object to be executed by a data processing accelerator coupled to a host system, the method comprising: receiving, at a runtime library executed within a trusted execution environment, TEE, of a host system, a request from an application to invoke a predetermined function to perform a predefined operation; in response to the request, identifying a kernel object associated with the predetermined function; verifying an executable image of the kernel object using a public key corresponding to a private key that was used to sign the executable image of the kernel object; and in response to successfully verifying the executable image of the kernel object, transmitting the verified executable image of the kernel object to a data processing, DP, accelerator over a bus to be executed by the DP accelerator to perform the predefined operation. receiving, at a runtime library executed within a trusted execution environment, TEE, of a host system, a request from an application to invoke a predetermined function to perform a predefined operation; in response to the request, identifying a kernel object associated with the predetermined function; verifying an executable image of the kernel object using a public key corresponding to a private key that was used to sign the executable image of the kernel object; and in response to successfully verifying the executable image of the kernel object, transmitting the verified executable image of the kernel object to a data processing, DP, accelerator over a bus to be executed by the DP accelerator to perform the predefined operation.
Insert assembly unit for a muffler of an exhaust system of an internal combustion engine, comprising two walls (12, 14) arranged at spaced locations from one another, wherein each of the two walls (12, 14) has a circumferential edge area (20, 22) intended for fixing at a circumferential wall of a muffler, and an exhaust gas flow unit arranged between the two walls (12, 14), wherein the exhaust gas flow unit comprises: - a flow duct area with an exhaust gas outer flow opening to be positioned directed towards the opening in a circumferential wall of the muffler, - a first mounting duct area, - a second mounting duct area, characterized in that - the first mounting duct area has a first mounting opening for fixing the exhaust gas flow unit at a first wall of the walls (12, 14), wherein a first mounting formation engaging in the first mounting channel region in the region of the first mounting opening is provided on the first wall, - the second mounting duct area has a second mounting opening for fixing the exhaust gas throughflow unit to a second of the walls (12, 14), wherein a second mounting bulge engaging in the second mounting duct area in the region of the second mounting opening is provided on the second wall. - a flow duct area with an exhaust gas outer flow opening to be positioned directed towards the opening in a circumferential wall of the muffler, - a first mounting duct area, - a second mounting duct area, - the first mounting duct area has a first mounting opening for fixing the exhaust gas flow unit at a first wall of the walls (12, 14), wherein a first mounting formation engaging in the first mounting channel region in the region of the first mounting opening is provided on the first wall, - the second mounting duct area has a second mounting opening for fixing the exhaust gas throughflow unit to a second of the walls (12, 14), wherein a second mounting bulge engaging in the second mounting duct area in the region of the second mounting opening is provided on the second wall.
A water vapor measuring device comprising an aircraft-mountable inflow and outflow apparatus, as well as a supply line, a measuring system with a measuring chamber and a discharge line, wherein the aircraft-mountable inflow and outflow apparatus has a head part with an air inlet, a shaft with an air outlet and a mounting section for mounting the inflow and outflow apparatus to an aircraft, wherein the air inlet is arranged at such a distance from the mounting section that the air inlet is located outside a friction layer around a surface of an aircraft, when the inflow and outflow apparatus is mounted to a flying aircraft, wherein the inflow and outflow apparatus has a detachable insert configured for insertion into the shaft of the inflow and outflow apparatus; said detachable insert comprising an entry opening and a first supply line portion in the form of an accumulating sleeve that is, in a straight line, adjoined by a second supply line portion that serves as the entry line of the insert and that, compared to the accumulating sleeve serving as the first supply line portion, has a reduced diameter, and said detachable insert being dimensioned such that the entry opening of the accumulating sleeve is located in the vicinity of an opening between the head part and the shaft of the inflow and outflow apparatus, wherein the accumulating sleeve is connected to a supply line connection for supply via the entry line. wherein the insert has an outlet jacket pipe connected to a discharge connection for discharging, wherein the insert comprises means for connecting the insert in a detachable manner to the shaft of the inflow and outflow apparatus, wherein the air inlet is connected via the accumulating sleeve and the entry line to the supply line connection for the supply line, in order to guide air entering the air inlet to the measuring chamber of a measuring system which, during operation, is located inside an aircraft, wherein the air outlet is connected via the outlet jacket pipe to the discharge connection for the discharge line, in order to guide air exiting the measuring chamber to the air outlet of the inflow and outflow apparatus, wherein the supply line is tightly connected to a supply line connection of the inflow and outflow apparatus and to an entry of the measuring chamber and wherein the discharge line is connected to an exit of the measuring chamber and the discharge line connection of the inflow and outflow apparatus, and wherein the measuring system is configured to determine the water vapor content of the air in the measuring chamber, and wherein the water vapor measuring device has both a probe heater arranged at an end face of the inflow and outflow apparatus and/or at the transition or in the vicinity of the transition between the air inlet and the accumulating sleeve and a heater arranged at the supply line to the measuring chamber.
Process for the chlorination of acetic acid to form monochloroacetic acid comprising the following steps a. reacting acetic acid with chlorine using acetic anhydride and/or acetyl chloride as catalyst to form a liquid phase and a gaseous phase, - the liquid phase comprising at least monochloroacetic acid, acid chlorides, acid anhydrides and optionally unreacted acetic acid, and - the gaseous phase comprising HCI and acetic acid, acid chlorides, acid anhydrides and monochloroacetic acid, b. stripping said liquid phase at a temperature of between 120 and 180°C and a pressure between 1 and 7 bara with gaseous HCI to form a gaseous HCI stream comprising acetic acid, acid chlorides and optionally acid anhydrides and monochloroacetic acid, and a liquid stream comprising monochloroacetic acid and dichloroacetic acid; c. cooling the gaseous HCI stream comprising acetic acid, acid chlorides and optionally acid anhydrides and monochloroacetic acid to a temperature of between 10 and 60°C, and d. feeding the cooled gaseous HCI to an absorber with acetic acid as absorbent absorbing the acetic acid, acid chlorides and optionally monochloroacetic acid forming a stream comprising acetic acid and acid chlorides. a. reacting acetic acid with chlorine using acetic anhydride and/or acetyl chloride as catalyst to form a liquid phase and a gaseous phase, - the liquid phase comprising at least monochloroacetic acid, acid chlorides, acid anhydrides and optionally unreacted acetic acid, and - the gaseous phase comprising HCI and acetic acid, acid chlorides, acid anhydrides and monochloroacetic acid, - the liquid phase comprising at least monochloroacetic acid, acid chlorides, acid anhydrides and optionally unreacted acetic acid, and - the gaseous phase comprising HCI and acetic acid, acid chlorides, acid anhydrides and monochloroacetic acid, b. stripping said liquid phase at a temperature of between 120 and 180°C and a pressure between 1 and 7 bara with gaseous HCI to form a gaseous HCI stream comprising acetic acid, acid chlorides and optionally acid anhydrides and monochloroacetic acid, and a liquid stream comprising monochloroacetic acid and dichloroacetic acid; c. cooling the gaseous HCI stream comprising acetic acid, acid chlorides and optionally acid anhydrides and monochloroacetic acid to a temperature of between 10 and 60°C, and d. feeding the cooled gaseous HCI to an absorber with acetic acid as absorbent absorbing the acetic acid, acid chlorides and optionally monochloroacetic acid forming a stream comprising acetic acid and acid chlorides.