mhurhangee/patent-ind-claim-en huggingface dataset:
A method for detecting a genome-wide genetic profile in microvesicles from a subject, thereby aiding in the diagnosis, monitoring and/or evaluation of a disease or other medical condition in a subject, comprising the steps of: (a) isolating a microvesicle fraction from a biological sample from the subject, wherein the biological sample from the subject is a bodily fluid sample, wherein the bodily fluid sample is serum or urine; (b) extracting nucleic acids from the microvesicle fraction, wherein the extracted nucleic acids comprise mRNAs; and (c) detecting the expression level of the mRNAs, thereby detecting the genome-wide genetic profile in the microvesicles; (d) comparing the genome-wide genetic profile detected in (c) to a genome-wide genetic profile derived from a healthy individual, thereby aiding in the diagnosis, monitoring and/or evaluation of a disease or other medical condition in a subject. (a) isolating a microvesicle fraction from a biological sample from the subject, wherein the biological sample from the subject is a bodily fluid sample, wherein the bodily fluid sample is serum or urine; (b) extracting nucleic acids from the microvesicle fraction, wherein the extracted nucleic acids comprise mRNAs; and (c) detecting the expression level of the mRNAs, thereby detecting the genome-wide genetic profile in the microvesicles; (d) comparing the genome-wide genetic profile detected in (c) to a genome-wide genetic profile derived from a healthy individual, thereby aiding in the diagnosis, monitoring and/or evaluation of a disease or other medical condition in a subject.
Drone for triggering naval mines, which has a drive with an electric motor for locomotion in the water, - wherein this electric motor can be additionally used during operation of the drone for triggering the naval mines, by means of an external magnetic field (B ext ) formed by the operation of the electric motor , - wherein the electric motor comprises a fixed stator and a rotor mounted rotatably in relation to the stator , - wherein the stator has at least one magnetic and/or electromagnetic element for forming an excitation field, - wherein the rotor has at least one armature winding , which during the operation of the electric motor interacts electromagnetically with the excitation field, whereby a superordinate magnetic field (B) is formed, - and wherein the external magnetic field (B ext ) formed during operation outside the electric motor is formed as a constant magnetic field. - wherein this electric motor can be additionally used during operation of the drone for triggering the naval mines, by means of an external magnetic field (B ext ) formed by the operation of the electric motor , - wherein the electric motor comprises a fixed stator and a rotor mounted rotatably in relation to the stator , - wherein the stator has at least one magnetic and/or electromagnetic element for forming an excitation field, - wherein the rotor has at least one armature winding , which during the operation of the electric motor interacts electromagnetically with the excitation field, whereby a superordinate magnetic field (B) is formed, - and wherein the external magnetic field (B ext ) formed during operation outside the electric motor is formed as a constant magnetic field.
An information processing device that performs real-time image transmission with another information processing device according to a wireless fidelity (Wi-Fi) CERTIFIED Miracast specification, comprising: a control unit configured to perform control such that setting request information for requesting a setting for performing the real-time image transmission is received from the other information processing device via an access point or through direct communication with the other information processing device, and a setting request for performing the setting based on the setting request information is transmitted to the other information processing device through direct communication with the other information processing device or via the access point, characterized in that , when image transmission according to the Wi-Fi CERTIFIED Miracast specification is performed through the direct communication after the setting request is transmitted to the other information processing device , the control unit is configured to perform control such that an image displayed on a predetermined region in a display unit is received through a wireless transmission path of a low frequency band, and an image displayed on a region larger than the predetermined region in the display unit is received through a wireless transmission path of a high frequency band. a control unit configured to perform control such that setting request information for requesting a setting for performing the real-time image transmission is received from the other information processing device via an access point or through direct communication with the other information processing device, and a setting request for performing the setting based on the setting request information is transmitted to the other information processing device through direct communication with the other information processing device or via the access point, characterized in that , when image transmission according to the Wi-Fi CERTIFIED Miracast specification is performed through the direct communication after the setting request is transmitted to the other information processing device , the control unit is configured to perform control such that an image displayed on a predetermined region in a display unit is received through a wireless transmission path of a low frequency band, and an image displayed on a region larger than the predetermined region in the display unit is received through a wireless transmission path of a high frequency band.
A machine for forming logs (B) of web material, comprising: - an unwinding section for unwinding parent reels (Ba, Bb) of web material (N; S); - at least one winding station comprising a winding device comprised of a winding mandrel ; wherein the winding station further comprises: guide members for guiding the strip (S) of web material, configured to form at least a loop of web material between a guide roller and a log (B) arranged on the winding device ; and a cutting device for transversally cutting the strip (S) of web material in an intermediate position between the log (B) and the guide roller , thus generating a tail edge, remaining on the log (B) being formed, and a leading edge, remaining fastened to the guide roller ; and wherein the machine is further characterized in that the winding mandrel is further provided with reciprocating translation motion in a direction parallel to the rotation axis thereof, in order to helically wind the strip (S) of web material around the winding mandrel . - an unwinding section for unwinding parent reels (Ba, Bb) of web material (N; S); - at least one winding station comprising a winding device comprised of a winding mandrel ; wherein the winding station further comprises: guide members for guiding the strip (S) of web material, configured to form at least a loop of web material between a guide roller and a log (B) arranged on the winding device ; and a cutting device for transversally cutting the strip (S) of web material in an intermediate position between the log (B) and the guide roller , thus generating a tail edge, remaining on the log (B) being formed, and a leading edge, remaining fastened to the guide roller ; and wherein the machine is further characterized in that the winding mandrel is further provided with reciprocating translation motion in a direction parallel to the rotation axis thereof, in order to helically wind the strip (S) of web material around the winding mandrel .
House mail box comprising a cuboid housing which has a mail receiving space accessible via a removal opening and which is delimited by a rear wall , two side walls , a lower wall , and an upper wall which is provided with an insertion slot , and comprising a closure flap which is hinged in the region of a front edge of the lower wall and is pivotable there, to a limited extent, about a horizontal axis between a closed position which closes the removal opening and an open position in which said flap is directed obliquely forwards and upwards, the lower edge of the closure flap projecting downwards beyond the lower wall and said closure flap having a bent portion which engages the lower wall from below in part and strikes against the lower wall in the open position of the closure flap , the closure flap having a lock which can be locked to the housing in the closed position of the flap, the lock being arranged close to the upper edge of the closure flap , and an insertion cover being hinged to the upper wall , which cover is pivotable, to a limited extent, between a closed position which closes the insertion slot and an open position, characterized in that a damping member is arranged between the housing and the closure flap , which member decelerates the opening movement of the closure flap and thus reduces the striking speed of the bent portion , and in that the insertion cover overlaps the lock in the closed position.
A woodworking device for working wooden elements, comprising at least one unit and a guide device, said guide device being capable of bringing the at least one unit and a wooden element to be worked into a desired relative position, the at least one unit comprising a connecting apparatus for connection to the guide device; a tool head having at least one changeable chuck for tools or tool holders; a drive device for driving the at least one changeable chuck ; and, between the connecting apparatus and the tool head , a first and a second rotary device near the connecting apparatus and near the tool head , respectively, said rotary devices being for rotary movements about a first and second axis , respectively, the first and the second axis of rotation being aligned perpendicular to one another, the first rotary device comprising a first rotary drive , the second rotary device comprising a second rotary drive , the two rotary devices making it possible to achieve rotations of the tool head about two axes perpendicular to one another, characterized in that the drive apparatus comprises a drive motor arranged on the connecting apparatus and comprises a drive transmission from the drive motor to the at least one changeable chuck of the tool head , the drive transmission comprising a first and a second shaft portion for the first and the second rotary devices , respectively, said first and second shaft portions being arranged centered on the first and the second axis of rotation, respectively, the drive transmission comprising, at the end of the second shaft portion opposite from the tool head , a gear unit having gears, preferably two intermeshing bevel gears .
An electronic device configured to compress data for storage in cache memories, the electronic device comprising: a hierarchy of cache memories including a first cache memory and a second cache memory , the first cache memory being lower in the hierarchy than the second cache memory; and at least one compression-decompression functional block configured to: receive data in an uncompressed state; compress the data using at least one of a first compression or a second compression by using the second compression and then using the first compression when using the second compression does not result in compression of the data; after compressing the data, provide the data to the first cache memory for storage therein; when the data is retrieved from the first cache memory to be stored in the second cache memory, when the data is compressed using the first compression, decompress the data to reverse effects of the first compression on the data, thereby restoring the data to the uncompressed state; and provide the data compressed using the second compression or in the uncompressed state to the second cache memory for storage therein. a hierarchy of cache memories including a first cache memory and a second cache memory , the first cache memory being lower in the hierarchy than the second cache memory; and at least one compression-decompression functional block configured to: receive data in an uncompressed state; compress the data using at least one of a first compression or a second compression by using the second compression and then using the first compression when using the second compression does not result in compression of the data; after compressing the data, provide the data to the first cache memory for storage therein; when the data is retrieved from the first cache memory to be stored in the second cache memory, when the data is compressed using the first compression, decompress the data to reverse effects of the first compression on the data, thereby restoring the data to the uncompressed state; and provide the data compressed using the second compression or in the uncompressed state to the second cache memory for storage therein. receive data in an uncompressed state; compress the data using at least one of a first compression or a second compression by using the second compression and then using the first compression when using the second compression does not result in compression of the data; after compressing the data, provide the data to the first cache memory for storage therein; when the data is retrieved from the first cache memory to be stored in the second cache memory, when the data is compressed using the first compression, decompress the data to reverse effects of the first compression on the data, thereby restoring the data to the uncompressed state; and provide the data compressed using the second compression or in the uncompressed state to the second cache memory for storage therein.
A method for transmitting control information by a base station in a communication system, the method comprising: transmitting, to a user equipment, UE, higher layer signaling comprising information indicating whether PDSCHs in short transmission time intervals, TTIs are scheduled by a first physical downlink control channel, PDCCH, whose demodulation is based on a demodulation reference signal, DMRS, or by a second PDCCH whose demodulation is not based on a DMRS; transmitting to the UE, control information on the first PDCCH or the second PDCCH based on the higher layer signaling information; and communicating with the UE on a data channel based on the control information in at least one short TTI identified by the first PDCCH or the second PDCCH, wherein if a normal TTI includes multiple short TTls, the first short TTI in the normal TTI is scheduled by a third PDCCH which schedules a normal TTI, and PDSCHs of the other short TTIs except the first short TTI are either scheduled by the second PDCCH or by the first PDCCH depending on the higher layer signaling. transmitting, to a user equipment, UE, higher layer signaling comprising information indicating whether PDSCHs in short transmission time intervals, TTIs are scheduled by a first physical downlink control channel, PDCCH, whose demodulation is based on a demodulation reference signal, DMRS, or by a second PDCCH whose demodulation is not based on a DMRS; transmitting to the UE, control information on the first PDCCH or the second PDCCH based on the higher layer signaling information; and communicating with the UE on a data channel based on the control information in at least one short TTI identified by the first PDCCH or the second PDCCH, wherein if a normal TTI includes multiple short TTls, the first short TTI in the normal TTI is scheduled by a third PDCCH which schedules a normal TTI, and PDSCHs of the other short TTIs except the first short TTI are either scheduled by the second PDCCH or by the first PDCCH depending on the higher layer signaling.
A compressor , comprising: a housing provided with an exhaust pipe , a first suction pipe and a second suction pipe ; a first cylinder disposed in the housing , the first cylinder defining a first exhaust passage and a first suction passage communicated with the first suction pipe , a suction volume of the first cylinder being denoted by V1, and a minimum flow area of the first suction passage being denoted by S1; and a second cylinder disposed in the housing , the second cylinder defining a second exhaust passage and a second suction passage communicated with the second suction pipe , characterised by a suction volume of the second cylinder being denoted by V2, and a minimum flow area of the second suction passage being denoted by S2; a suction pressure of the second cylinder being greater than a suction pressure of the first cylinder , and the first cylinder and the second cylinder satisfying: 1.2 ∗ V2/V1≤S2/S1. a housing provided with an exhaust pipe , a first suction pipe and a second suction pipe ; a first cylinder disposed in the housing , the first cylinder defining a first exhaust passage and a first suction passage communicated with the first suction pipe , a suction volume of the first cylinder being denoted by V1, and a minimum flow area of the first suction passage being denoted by S1; and a second cylinder disposed in the housing , the second cylinder defining a second exhaust passage and a second suction passage communicated with the second suction pipe , characterised by a suction volume of the second cylinder being denoted by V2, and a minimum flow area of the second suction passage being denoted by S2; a suction pressure of the second cylinder being greater than a suction pressure of the first cylinder , and the first cylinder and the second cylinder satisfying: 1.2 ∗ V2/V1≤S2/S1.
A wireless communication method, comprising: sending , by a network device, configuration signaling to a terminal device, wherein the configuration signaling comprises multiple sets of configuration information for a first type of channel, and a correspondence between the multiple sets of configuration information for the first type of channel and at least one set of configuration information for a second type of channel, and wherein the configuration signaling is configuration signaling for a Bandwidth Part, BWP; wherein the first type of channel is a Physical Downlink Control Channel, PDCCH, and the second type of channel is a Physical Downlink Shared Channel, PDSCH; wherein each of the multiple sets of configuration information comprises: one Control Resource Set, CORESET, group to which a CORESET for the PDCCH belongs, wherein one CORESET group is associated with scrambling information used to determine an initial value of a scrambling sequence used to transmit the PDSCH; wherein a single carrier is used to implement transmission of the first type of channel based on the multiple sets of configuration information. sending , by a network device, configuration signaling to a terminal device, wherein the configuration signaling comprises multiple sets of configuration information for a first type of channel, and a correspondence between the multiple sets of configuration information for the first type of channel and at least one set of configuration information for a second type of channel, and wherein the configuration signaling is configuration signaling for a Bandwidth Part, BWP; wherein the first type of channel is a Physical Downlink Control Channel, PDCCH, and the second type of channel is a Physical Downlink Shared Channel, PDSCH; wherein each of the multiple sets of configuration information comprises: one Control Resource Set, CORESET, group to which a CORESET for the PDCCH belongs, wherein one CORESET group is associated with scrambling information used to determine an initial value of a scrambling sequence used to transmit the PDSCH; wherein a single carrier is used to implement transmission of the first type of channel based on the multiple sets of configuration information.
Laundry care appliance having a filter element for filtering washing liquid , wherein the filter element has a filter housing , which bounds a filter interior space of the filter element at least in sections, wherein the filter element has a filter membrane for filtering washing liquid , which is arranged on the filter housing , wherein the filter element has a filter inlet opening (115-1) for supplying washing liquid into the filter interior space , wherein the filter element is embodied to conduct washing liquid flowing into the filter interior space through the filter inlet opening (115-1) through the filter membrane in order to remove dirt in the washing liquid , wherein the filter element has a displaceable cleaning element , which is arranged in the filter interior space and rests against the filter membrane , characterised in that the displaceable cleaning element is displaced along a displacement direction within the filter interior space in order to displace dirt attached to the filter membrane along the displacement direction on the filter membrane , in order to remove the dirt from the filter membrane at least in sections and in order to compress the dirt , and that the filter element has a receiving area which is embodied to receive the compressed dirt .
A floating brush seal assembly, comprising: a ring-shaped housing defining a radially inwardly open internal cavity ; a brush seal in the cavity and having bristles extending radially inwardly and offset to seal against a rotating body ; wherein the housing has a backing plate and a side plate defining the cavity therebetween, and wherein the brush seal is between the backing plate and the side plate ; wherein the side plate is slidable axially into the backing plate ; wherein the brush seal comprises a ring-shaped bristle holder , and the bristles extend radially inwardly from the bristle holder ; and wherein the assembly further comprises: a retaining device for securing the side plate to the backing plate ; a radial spring positioned to exert a radial inwardly directed force against the brush seal relative to the housing ; an axial spring positioned to exert an axially directed force against the brush seal relative to the housing ; and a floating gap defined between a radially inwardly facing surface of the cavity and a radially outwardly facing surface of the bristle holder ; wherein the radial spring is positioned in the floating gap ; characterised in that the retaining device is mounted into a slot or groove to complete the assembly. a ring-shaped housing defining a radially inwardly open internal cavity ; a brush seal in the cavity and having bristles extending radially inwardly and offset to seal against a rotating body ; wherein the housing has a backing plate and a side plate defining the cavity therebetween, and wherein the brush seal is between the backing plate and the side plate ; wherein the side plate is slidable axially into the backing plate ; wherein the brush seal comprises a ring-shaped bristle holder , and the bristles extend radially inwardly from the bristle holder ; and wherein the assembly further comprises: a retaining device for securing the side plate to the backing plate ; a radial spring positioned to exert a radial inwardly directed force against the brush seal relative to the housing ; an axial spring positioned to exert an axially directed force against the brush seal relative to the housing ; and a floating gap defined between a radially inwardly facing surface of the cavity and a radially outwardly facing surface of the bristle holder ; wherein the radial spring is positioned in the floating gap ; characterised in that the retaining device is mounted into a slot or groove to complete the assembly. a retaining device for securing the side plate to the backing plate ; a radial spring positioned to exert a radial inwardly directed force against the brush seal relative to the housing ; an axial spring positioned to exert an axially directed force against the brush seal relative to the housing ; and a floating gap defined between a radially inwardly facing surface of the cavity and a radially outwardly facing surface of the bristle holder ; wherein the radial spring is positioned in the floating gap ; characterised in that the retaining device is mounted into a slot or groove to complete the assembly.