mhurhangee/patent-ind-claim-en huggingface dataset:
A clamping structure of a cargo support having a cross beam , comprising: a chuck with a guide portion and disposed at an end of the cross beam , the cross beam being connected with a handle , the handle being capable of driving the chuck to move back and forth along an axial direction of the cross beam so that the chuck switching between a clamped state and a released state, the cross beam is of hollow structure, the guide portion of the chuck extends into the cross beam , and inside the cross beam is further provided with a guide structure that cooperates with the guide portion and guides a movement of the chuck , characterized in that the guide structure is a guide sleeve fixed inside the cross beam , and the guide portion of the chuck passes through the guide sleeve and forms a sliding fit with the guide sleeve , and there is at least one brace , the at least one brace located below the guide portion is fixedly connected inside the cross beam , the cross beam is provided with a first top plate located on an upper side of the guide sleeve , a bottom of the guide sleeve is connected on the at least one brace , and a top of the guide sleeve abuts and positions on the first top plate .
A dispensing pump for fuel vending systems, comprising a pump body which forms internally a pumping chamber , which rotatably accommodates an impeller , functionally connected to motor means , and provided with an intake connector and a delivery connector , which communicate with said pumping chamber and is configured to be connected to a fuel dispensing line, wherein said pump body has at least one coupling portion for at least one auxiliary device of said dispensing line wherein said coupling portion comprises at least one coupling region for at least one filter characterized in that said coupling region is formed along at least one delivery duct , which is formed in said pump body and extends from said pumping chamber toward said delivery connector .
Process for manufacturing a radically curable mixture by mixing and/or kneading a mixture comprising radically curable thermosetting resin, fibres, curing agent and filler to form a dough, wherein the content of radically curable thermosetting resin in the mixture is in the range 5-80 wt.%, the content of fibres in the mixture is in the range 9-50 wt.%, the content of filler in the mixture is in the range 10 - 80 wt.%, wherein the filler is chosen from one or more of the group of a) char originated from pyrolysis of grasses, wood, agricultural crops, manure, landfill and plastic waste sources and b) grinded pits from stone fruits, grinded pits from drupes and grinded shells from nuts, all wt.% are based on the total weight of the mixture, wherein the total sum of the components in the mixture is 100 %.
A method for operating an optical switch node in a segment routed optical network, characterized in that the method comprises: receiving from a first prior node, over a first optical link in the optical network, a first optical signal carrying a payload and control information associated with the optical switch node and with subsequent optical switch nodes in a segment routed path; filtering the first optical signal to extract a wavelength channel including the control information; controlling a switching fabric in accordance with the control information associated with the optical switch node read from the wavelength channel in a manner non-destructive to the control information associated with the subsequent optical switch nodes in the segment routed path; combining an optical signal on the wavelength channel including the control information with a through signal remaining from the received optical signal after filtering the wavelength channel; forwarding to a subsequent node in the optical network, through the switching fabric, in a manner determined in accordance with the read control information, the combined optical signal. receiving from a first prior node, over a first optical link in the optical network, a first optical signal carrying a payload and control information associated with the optical switch node and with subsequent optical switch nodes in a segment routed path; filtering the first optical signal to extract a wavelength channel including the control information; controlling a switching fabric in accordance with the control information associated with the optical switch node read from the wavelength channel in a manner non-destructive to the control information associated with the subsequent optical switch nodes in the segment routed path; combining an optical signal on the wavelength channel including the control information with a through signal remaining from the received optical signal after filtering the wavelength channel; forwarding to a subsequent node in the optical network, through the switching fabric, in a manner determined in accordance with the read control information, the combined optical signal.
A method for wireless communication, comprising: transmitting from a base station first control information to support communication for at least one first user equipment , UE, on a first system bandwidth; and transmitting from the base station second control information to support communication for at least one second UE on a second system bandwidth overlapping the first system bandwidth, and wherein the second system bandwidth comprises the first system bandwidth and additional bandwidth; wherein the at least one first UE communicates with the base station on the first system bandwidth for downlink and on a third system bandwidth for uplink, wherein the at least one second UE communicates with the base station on the second system bandwidth for the downlink and on a fourth system bandwidth for the uplink, and wherein the fourth system bandwidth overlaps the third system bandwidth and comprises the third system bandwidth and another additional bandwidth; and wherein resource blocks within the first system bandwidth are assigned unique indices, resource blocks within the additional bandwidth are assigned unique indices, and a given resource block has a same index for the first bandwidth and the bandwidth portion of the second system bandwidth that overlaps the first bandwidth; and further comprising transmitting a cell-specific reference signal, CRS, across the first system bandwidth. transmitting from a base station first control information to support communication for at least one first user equipment , UE, on a first system bandwidth; and transmitting from the base station second control information to support communication for at least one second UE on a second system bandwidth overlapping the first system bandwidth, and wherein the second system bandwidth comprises the first system bandwidth and additional bandwidth; wherein the at least one first UE communicates with the base station on the first system bandwidth for downlink and on a third system bandwidth for uplink, wherein the at least one second UE communicates with the base station on the second system bandwidth for the downlink and on a fourth system bandwidth for the uplink, and wherein the fourth system bandwidth overlaps the third system bandwidth and comprises the third system bandwidth and another additional bandwidth; and wherein resource blocks within the first system bandwidth are assigned unique indices, resource blocks within the additional bandwidth are assigned unique indices, and a given resource block has a same index for the first bandwidth and the bandwidth portion of the second system bandwidth that overlaps the first bandwidth; and further comprising transmitting a cell-specific reference signal, CRS, across the first system bandwidth.
An object data allocation system having a server apparatus and a client device coupled together via a network , for placing an object data file held by the server apparatus in the client device , wherein, the object data file comprises at least one data block ; the server apparatus comprises a distribution data creation unit and a delivery unit , wherein the distribution data creation unit is arranged to specify a storage data group , wherein the storage data group comprises at least one data block , being stored in a storage device of the client device which storage device becomes a delivery destination of the at least one data block (403-405) in the object data file , to extract from the specified storage data group at least one data block (406-408) which is similar at the byte-level to the at least one data block (403-405) in the object data file , wherein the at least one data block (406-408) extracted from the specified storage data group is similar at the byte-level to, but is not a previous version of, the at least one data block (403-405) in the object data file to create difference data indicative of a difference at the byte-level between the at least one data block (406-408) extracted from the specified storage data group and the at least one data block (403-405) in the object data file , and to create allocation information indicating placement within the storage device of the client device and being used for specifying the at least one data block (406-408) extracted from the specified storage data group; the delivery unit is arranged to send distribution data containing therein the difference data and the allocation information to the client device ; and wherein the client device comprises a restructuring unit , the restructuring unit being arranged to specify the at least one data block (406-408) extracted from the specified storage data group stored in the storage device in accordance with the allocation information contained in the distribution data received, to create, using the allocation information, an analogous data file from the at least one data block (406-408) extracted from the specified storage data group, the analogous data file differing from the object data file by the difference data, and to rebuild the object data file using the created analogous data file and the difference data .
A method for detecting an attack of an integrated circuit (CI) by a beam of electrically charged particles (IB), comprising - a production, in the integrated circuit, of at least one electrically conductive body (MPL) and at least one state transistor having a floating gate (FG) which is electrically coupled with respectively said at least one electrically conductive body (MPL); - a configuration of said at least one state transistor (FGT) so as to give it a respective initial threshold voltage; and - a detection of said attack by a detection of a threshold voltage of said at least one state transistor (FGT) which is different from the initial threshold voltage. - a production, in the integrated circuit, of at least one electrically conductive body (MPL) and at least one state transistor having a floating gate (FG) which is electrically coupled with respectively said at least one electrically conductive body (MPL); - a configuration of said at least one state transistor (FGT) so as to give it a respective initial threshold voltage; and - a detection of said attack by a detection of a threshold voltage of said at least one state transistor (FGT) which is different from the initial threshold voltage.
Threaded insert suitable for installation in a pipe portion through which a fluid flows, the threaded insert comprising: a hollow cylindrical main body (12; 112; 212; 312) having a first end portion (14; 114) and a second end portion (16; 116; 216; 316) and having an internal thread ; a bearing head (18; 118; 218) on the first end portion (14; 114) of the main body (12; 112; 212; 312), which bearing head protrudes beyond the main body (12; 112; 212; 312) in the radial direction of the main body (12; 112; 212; 312); a fastening portion (20; 120; 220; 320), which is arranged on the main body (12; 112; 212; 312) at a predetermined distance from the bearing head (18; 118; 218) in the axial direction of the main body (12; 112; 212; 312) and protrudes beyond the main body (12; 112; 212; 312) in the radial direction; and a contact portion (22; 122; 222; 322), which is arranged and designed between the bearing head (18; 118; 218) and the fastening portion (20; 120; 220; 320) in the axial direction of the main body (12; 112; 212; 312) such that, in an installed state, a wall of a distributing pipe opening rests against said contact portion, characterised in that the main body (12; 112; 212; 312) has an oval or polygonal outer periphery at least in the region of the contact portion (22; 122; 222; 322). a hollow cylindrical main body (12; 112; 212; 312) having a first end portion (14; 114) and a second end portion (16; 116; 216; 316) and having an internal thread ; a bearing head (18; 118; 218) on the first end portion (14; 114) of the main body (12; 112; 212; 312), which bearing head protrudes beyond the main body (12; 112; 212; 312) in the radial direction of the main body (12; 112; 212; 312); a fastening portion (20; 120; 220; 320), which is arranged on the main body (12; 112; 212; 312) at a predetermined distance from the bearing head (18; 118; 218) in the axial direction of the main body (12; 112; 212; 312) and protrudes beyond the main body (12; 112; 212; 312) in the radial direction; and a contact portion (22; 122; 222; 322), which is arranged and designed between the bearing head (18; 118; 218) and the fastening portion (20; 120; 220; 320) in the axial direction of the main body (12; 112; 212; 312) such that, in an installed state, a wall of a distributing pipe opening rests against said contact portion, characterised in that the main body (12; 112; 212; 312) has an oval or polygonal outer periphery at least in the region of the contact portion (22; 122; 222; 322).
Method for the transmission, by a chip card that has reached the end of its life, via a data transmission channel, of status information related to the cause of said chip card reaching the end of its life, said data transmission channel being an auxiliary transmission channel using the controlled modification of a hardware characteristic of said card, this modification being detectable from the outside of this card, said information being coded in the form of symbols, such that a symbol is transmitted by executing a chosen instruction for the processor of said chip card, which has the effect of modifying said hardware characteristic, and: • a symbol is transmitted by an instruction which uses or does not use the cryptographic processor of said chip card according to the value of the symbol; or • a symbol is transmitted by an instruction that is dependent on the heating power of said processor of said chip card according to the value of said symbol; or • said hardware characteristic used by said auxiliary channel being the current consumption of the card while its processor is executing said chosen instruction, a symbol is sent by executing a particular instruction at an operating clock frequency of the processor of the card which is dependent on the value of said symbol. • a symbol is transmitted by an instruction which uses or does not use the cryptographic processor of said chip card according to the value of the symbol; or • a symbol is transmitted by an instruction that is dependent on the heating power of said processor of said chip card according to the value of said symbol; or • said hardware characteristic used by said auxiliary channel being the current consumption of the card while its processor is executing said chosen instruction, a symbol is sent by executing a particular instruction at an operating clock frequency of the processor of the card which is dependent on the value of said symbol.
A system , comprising an external computing device and a monitor (102, 202-1, 202-2, 202-N), the monitor comprising: a scaler processing resource ; and a memory resource storing machine readable instructions to cause the scaler processing resource to: record, by a sensor included on the monitor , color measurements of the monitor in response to receiving record instructions from the external computing device ; transmit the recorded color measurements to the external computing device; receive calibration instructions from the external computing device based on the recorded color measurements; and calibrate the monitor using the calibration instructions received from the external computing device , wherein the monitor does not include a system on chip (SOC) processing resource; characterized in that the calibration instructions include lookup tables including color calibration information. a scaler processing resource ; and a memory resource storing machine readable instructions to cause the scaler processing resource to: record, by a sensor included on the monitor , color measurements of the monitor in response to receiving record instructions from the external computing device ; transmit the recorded color measurements to the external computing device; receive calibration instructions from the external computing device based on the recorded color measurements; and calibrate the monitor using the calibration instructions received from the external computing device , wherein the monitor does not include a system on chip (SOC) processing resource; characterized in that the calibration instructions include lookup tables including color calibration information. record, by a sensor included on the monitor , color measurements of the monitor in response to receiving record instructions from the external computing device ; transmit the recorded color measurements to the external computing device; receive calibration instructions from the external computing device based on the recorded color measurements; and calibrate the monitor using the calibration instructions received from the external computing device , wherein the monitor does not include a system on chip (SOC) processing resource; characterized in that the calibration instructions include lookup tables including color calibration information.
An information processing system based on Internet of Things, wherein the system comprises a server device, a first device, and a second device, wherein the first device is an Internet of Things device, the second device is an Internet of Things device, the first device and the second device are not the same, and the first device and the second device have a binding relationship, wherein the first device is configured to: when a first acquisition instruction is triggered, acquire biometric feature information, and send the acquired biometric feature information to the server device; the second device is configured to: when a second acquisition instruction is triggered, acquire body movement information, and send the acquired body movement information to the server device; and the server device is configured to: receive the biometric feature information sent by the first device, identify, according to the biometric feature information, a user corresponding to the biometric feature information; after identifying the user, receive the body movement information sent by the second device; and perform a transaction or operation for the user according to the body movement information, wherein the first device is configured to receive, from the server device, an identification result obtained by identifying the user, and in response to receiving the identification result, trigger the second acquisition instruction; or wherein, after identifying the user according to the biometric feature information, the server device is configured to trigger the second acquisition instruction. receive the biometric feature information sent by the first device, identify, according to the biometric feature information, a user corresponding to the biometric feature information; after identifying the user, receive the body movement information sent by the second device; and perform a transaction or operation for the user according to the body movement information,
An end effector for an articulated arm, said end effector comprising a valve assembly comprising a valve plate split into a top piece and a bottom piece and a printed circuit board sandwiched between the top piece and the bottom piece, said valve assembly including a plurality of supply channels extending through the top piece and the bottom piece, each supply channel including a supply conduit , a pressure sensor mounted on the printed circuit board and in fluid communication with the supply conduit , and a supply conduit plug ; wherein said supply conduit is in fluid communication with a vacuum source ; wherein during use, each supply conduit is either at vacuum such that the pressure within the supply conduit is substantially at a vacuum pressure, or is at a pressure that is substantially higher than vacuum pressure because the supply conduit plug has moved to block a portion of the supply conduit; and wherein said pressure sensor of each supply conduit provides a pressure sensor signal responsive to whether the pressure in the conduit is either substantially at vacuum or is at a pressure that is substantially higher than vacuum. wherein said supply conduit is in fluid communication with a vacuum source ; wherein during use, each supply conduit is either at vacuum such that the pressure within the supply conduit is substantially at a vacuum pressure, or is at a pressure that is substantially higher than vacuum pressure because the supply conduit plug has moved to block a portion of the supply conduit; and wherein said pressure sensor of each supply conduit provides a pressure sensor signal responsive to whether the pressure in the conduit is either substantially at vacuum or is at a pressure that is substantially higher than vacuum.
A method performed by a terminal device , comprising: transmitting (S101), to a network node , information about acknowledgement, based on a configuration of a resource for the information about acknowledgement; wherein the resource is configured for at least one Hybrid Automatic Repeat reQuest, HARQ, process; wherein the configuration indicates using multiple Physical Uplink Control Channel, PUCCH, resources in a slot; wherein the multiple PUCCH resources include M = 2^N - 1 PUCCH resources for N HARQ processes, wherin M is positive integer and N is positive integer larger than 1; and wherein the terminal device transmits on one of the PUCCH resources according to a subset of HARQ processes for which the terminal device needs to signal NACK; and wherein the terminal device transmits on at least one PUCCH resource of the multiple PUCCH resources if the terminal device has at least one NACK, and the terminal device does not transmit on the multiple PUCCH resources if the terminal device does not have a NACK. transmitting (S101), to a network node , information about acknowledgement, based on a configuration of a resource for the information about acknowledgement; wherein the resource is configured for at least one Hybrid Automatic Repeat reQuest, HARQ, process; wherein the configuration indicates using multiple Physical Uplink Control Channel, PUCCH, resources in a slot; wherein the multiple PUCCH resources include M = 2^N - 1 PUCCH resources for N HARQ processes, wherin M is positive integer and N is positive integer larger than 1; and wherein the terminal device transmits on one of the PUCCH resources according to a subset of HARQ processes for which the terminal device needs to signal NACK; and wherein the terminal device transmits on at least one PUCCH resource of the multiple PUCCH resources if the terminal device has at least one NACK, and the terminal device does not transmit on the multiple PUCCH resources if the terminal device does not have a NACK.