mhurhangee/patent-ind-claim-en huggingface dataset:
A Co-robot apparatus for building walls after a building structure is constructed by controlling pouring of a low-viscosity solution and an early bonding into a creep formwork, the co-robot comprises a manipulator, a vertically mounted trolley with a nozzle or nozzles, the creep formwork in form of a horizontal frame and two vertical constructions, the manipulator being adapted to perform the pouring in which a horizontal movement is carried out by the vertically mounted trolley with the nozzle or the nozzles, the vertically mounted trolley being adapted to move horizontally along the horizontal frame, the horizontal frame being adapted to vertically move from the two vertical constructions, characterized in that the horizontal frame is a framed formwork consisting of an internal formwork with a supporting structure which is a rail track on which the vertical trolley is mounted and an outer formwork attached to the internal formwork . for building walls after a building structure is constructed by controlling pouring of a low-viscosity solution and an early bonding into a creep formwork, the co-robot comprises a manipulator, a vertically mounted trolley with a nozzle or nozzles, the creep formwork in form of a horizontal frame and two vertical constructions, the manipulator being adapted to perform the pouring in which a horizontal movement is carried out by the vertically mounted trolley with the nozzle or the nozzles, the vertically mounted trolley being adapted to move horizontally along the horizontal frame, the horizontal frame being adapted to vertically move from the two vertical constructions, characterized in that the horizontal frame is a framed formwork consisting of an internal formwork with a supporting structure which is a rail track on which the vertical trolley is mounted and an outer formwork attached to the internal formwork .
A device for use in fluid sample analysis, comprising: a top part ; a base part ; wherein, the top part is configured to be positioned adjacent to the base part so as to define a fluid receiving region in between; wherein, the top part has a through opening so as to enable fluid connection with the fluid receiving region ; wherein, the base part comprises a fluid receiving surface and a radiation window extending from at least a part of the fluid receiving surface ; wherein, when the top part is positioned adjacent to the base part , the device is configured such that a fluidic sample supplied through the through opening is moved laterally in the fluid receiving region over the fluid receiving surface without the use of an intermediary membrane; wherein, the device further comprises a radiation receiving area that is at least partially reflective to at least one wavelength of the radiation, such that at least a part of the fluid receiving region is located between the radiation receiving area and the fluid receiving surface when the top part is positioned adjacent to the base part . a top part ; a base part ; wherein, the top part is configured to be positioned adjacent to the base part so as to define a fluid receiving region in between; wherein, the top part has a through opening so as to enable fluid connection with the fluid receiving region ; wherein, the base part comprises a fluid receiving surface and a radiation window extending from at least a part of the fluid receiving surface ; wherein, when the top part is positioned adjacent to the base part , the device is configured such that a fluidic sample supplied through the through opening is moved laterally in the fluid receiving region over the fluid receiving surface without the use of an intermediary membrane; wherein, the device further comprises a radiation receiving area that is at least partially reflective to at least one wavelength of the radiation, such that at least a part of the fluid receiving region is located between the radiation receiving area and the fluid receiving surface when the top part is positioned adjacent to the base part .
A CD19-specific chimeric antigen receptor, comprising: (a) an extracellular domain comprising an anti-CD19 antibody or the antigen-binding fragment thereof; (b) a transmembrane domain; and (c) an intracellular signaling domain, wherein the anti-CD19 antibody or an antigen-binding fragment thereof comprises: a heavy chain variable region (VH) comprising a CDRH1 of SEQ ID NO: 1, a CDRH2 and a CDRH3 of SEQ ID NO: 3; and a light chain variable region (VL) comprising a CDRL1, a CDRL2 of SEQ ID NO: 5 and a CDRL3 of SEQ ID NO: 6, wherein the CDRH2 and CDRL1, respectively, comprise amino acid sequences of SEQ ID NOS: 2 and 4, SEQ ID NOS: 7 and 49, SEQ ID NOS: 8 and 50, SEQ ID NOS: 9 and 51, SEQ ID NOS: 10 and 52, SEQ ID NOS: 11 and 53, SEQ ID NOS: 12 and 54, SEQ ID NOS: 13 and 55, SEQ ID NOS: 14 and 56, SEQ ID NOS: 15 and 57, SEQ ID NOS: 16 and 58, SEQ ID NOS: 17 and 59, SEQ ID NOS: 18 and 60, SEQ ID NOS: 19 and 61, SEQ ID NOS: 20 and 62, SEQ ID NOS: 21 and 63, SEQ ID NOS: 22 and 64, SEQ ID NOS: 23 and 65, SEQ ID NOS: 24 and 66, SEQ ID NOS: 25 and 67, SEQ ID NOS: 26 and 68, SEQ ID NOS: 27 and 69, SEQ ID NOS: 28 and 70, SEQ ID NOS: 29 and 71, SEQ ID NOS: 30 and 72, SEQ ID NOS: 31 and 73, SEQ ID NOS: 32 and 74, SEQ ID NOS: 33 and 75, SEQ ID NOS: 34 and 76, SEQ ID NOS: 35 and 77, SEQ ID NOS: 36 and 78, SEQ ID NOS: 37 and 79, SEQ ID NOS: 38 and 80, SEQ ID NOS: 39 and 81, SEQ ID NOS: 40 and 82, SEQ ID NOS: 41 and 83, SEQ ID NOS: 42 and 84, SEQ ID NOS: 43 and 85, SEQ ID NOS: 44 and 86, SEQ ID NOS: 45 and 87, SEQ ID NOS: 46 and 88, SEQ ID NOS: 47 and 89, or SEQ ID NOS: 48 and 90. (a) an extracellular domain comprising an anti-CD19 antibody or the antigen-binding fragment thereof; (b) a transmembrane domain; and (c) an intracellular signaling domain,
A process for preparing high-reactivity isobutene homo- or copolymers with a content of terminal vinylidene double bonds per polyisobutene chain end of at least 70 mol%, which comprises polymerizing isobutene or an isobutene-comprising monomer mixture in the presence of an aluminum trihalide-donor complex effective as a polymerization catalyst or of an alkylaluminum halide-donor complex, said complex comprising, as the donor, a mixture of at least two organic compounds with at least one ether function each.
Stem cell rich plasma for use in treating or preventing an immune dysfunction associated with aging in a patient, wherein the stem cell rich plasma is administered to the patient in combination with G-CSF, and wherein said stem cell rich plasma is obtained from an ABO-matched healthy allogeneic human donor selected from males and nulliparous females, and wherein the donor is pre-treated with granulocyte colony stimulating factor (G-CSF), at a dose of 5 to 15 μg/kg for three days prior to undergoing plasmapheresis. and wherein said stem cell rich plasma is obtained from an ABO-matched healthy allogeneic human donor selected from males and nulliparous females, and wherein the donor is pre-treated with granulocyte colony stimulating factor (G-CSF), at a dose of 5 to 15 μg/kg for three days prior to undergoing plasmapheresis.
Optoelectronic semiconductor chip , which has a carrier and a semiconductor body having a semiconductor layer sequence, said semiconductor body being arranged on the carrier , and said optoelectronic semiconductor chip having a chip front side and a chip rear side, wherein - the semiconductor layer sequence comprises an active region , which is arranged between a first semiconductor layer and a second semiconductor layer , and is provided for the generation or reception of electromagnetic radiation, - the first semiconductor layer is electrically conductively connected to a first contact , - the first contact is formed on the chip front side, in particular next to the active region , - the second semiconductor layer is electrically conductively connected to a second contact , - the second contact is also formed on the chip front side, in particular next to the active region , and - an electrically insulating separation layer , which electrically insulates the chip rear side from the active region of the semiconductor chip, the electrically insulating separation layer comprising a first separation layer which has at least one atomic layer or at least one molecular layer and is deposited by means of atomic layer deposition or molecular layer deposition, and at least one second separation layer , which has one or more layers deposited by gas phase deposition or sputtering. - the semiconductor layer sequence comprises an active region , which is arranged between a first semiconductor layer and a second semiconductor layer , and is provided for the generation or reception of electromagnetic radiation, - the first semiconductor layer is electrically conductively connected to a first contact , - the first contact is formed on the chip front side, in particular next to the active region , - the second semiconductor layer is electrically conductively connected to a second contact , - the second contact is also formed on the chip front side, in particular next to the active region , and - an electrically insulating separation layer , which electrically insulates the chip rear side from the active region of the semiconductor chip, the electrically insulating separation layer comprising a first separation layer which has at least one atomic layer or at least one molecular layer and is deposited by means of atomic layer deposition or molecular layer deposition, and at least one second separation layer , which has one or more layers deposited by gas phase deposition or sputtering.
A check code processing method, comprising: for each 64Bit/66Bit, 64B/66B, Block in a same transmission cycle, and for each k ∈ {0, 1, 2, 3, 4, 5, 6 and 7}, performing exclusive or operation bitwise on 8 bits of the kth byte of the 64B/66B Block to obtain an kth bit of a 8-bit first sequence corresponding to the 64B/66B Block, thereby obtaining a 8-bit first sequence for each 64B/66B Block in the same transmission cycle; and performing exclusive or operation bitwise on all obtained 8-bit first sequences of the 64B/66B Blocks in the same transmission cycle to obtain a check code. for each 64Bit/66Bit, 64B/66B, Block in a same transmission cycle, and for each k ∈ {0, 1, 2, 3, 4, 5, 6 and 7}, performing exclusive or operation bitwise on 8 bits of the kth byte of the 64B/66B Block to obtain an kth bit of a 8-bit first sequence corresponding to the 64B/66B Block, thereby obtaining a 8-bit first sequence for each 64B/66B Block in the same transmission cycle; and performing exclusive or operation bitwise on all obtained 8-bit first sequences of the 64B/66B Blocks in the same transmission cycle to obtain a check code.
An intelligent terminal control method, wherein the method comprises: displaying an object management window; detecting input of a user performed in the object management window, wherein the input comprises a screen touch position of the user and a pressure value; determining , according to the screen touch position, an object selected by the user; and compressing , when the pressure value is greater than or equal to a preset threshold, the object selected by the user, wherein before the compressing the object selected by the user, the method further comprises: obtaining a compression rate according to the pressure value; and the compressing the object selected by the user comprises: compressing, in the object management window according to the obtained compression rate, the object selected by the user. displaying an object management window; detecting input of a user performed in the object management window, wherein the input comprises a screen touch position of the user and a pressure value; determining , according to the screen touch position, an object selected by the user; and compressing , when the pressure value is greater than or equal to a preset threshold, the object selected by the user, wherein before the compressing the object selected obtaining a compression rate according to the pressure value; and the compressing the object selected by the user comprises: compressing, in the object management window according to the obtained compression rate, the object selected by the user.
A radar altimeter system comprising: a transmitter configured to output a transmitter signal ; a local oscillator delay line coupled to the transmitter and including a variable time delay circuit , the local oscillator delay line configured to receive a portion of the transmitter signal and to add a time delay to the portion of the transmitter signal resulting in a delayed signal , the variable time delay circuit configured to be adjustable to adjust the time delay added to the portion of the transmitter signal ; a transceiver circulator coupled to the transmitter ; an antenna coupled to the transceiver circulator ; and a frequency mixer coupled to the local oscillator delay line and coupled to the transceiver circulator ; wherein the transceiver circulator directs a portion of the transmitter signal to the antenna ; wherein the antenna is configured to transmit the portion of the transmitter signal and receive a target reflected signal from a target , wherein the target reflected signal includes a portion of the transmitter signal reflected from the target ; wherein the frequency mixer is configured to receive the delayed signal and the target reflected signal from the transceiver circulator , characterized in that the variable time delay circuit includes a second-order band-pass filter comprising a variable shunt capacitor coupled to ground, a shunt inductor coupled to ground, a variable series capacitor , and a series inductor coupled to the variable series capacitor . a transmitter configured to output a transmitter signal ; a local oscillator delay line coupled to the transmitter and including a variable time delay circuit , the local oscillator delay line configured to receive a portion of the transmitter signal and to add a time delay to the portion of the transmitter signal resulting in a delayed signal , the variable time delay circuit configured to be adjustable to adjust the time delay added to the portion of the transmitter signal ; a transceiver circulator coupled to the transmitter ; an antenna coupled to the transceiver circulator ; and a frequency mixer coupled to the local oscillator delay line and coupled to the transceiver circulator ; wherein the transceiver circulator directs a portion of the transmitter signal to the antenna ; wherein the antenna is configured to transmit the portion of the transmitter signal and receive a target reflected signal from a target , wherein the target reflected signal includes a portion of the transmitter signal reflected from the target ; wherein the frequency mixer is configured to receive the delayed signal and the target reflected signal from the transceiver circulator , characterized in that the variable time delay circuit includes a second-order band-pass filter comprising a variable shunt capacitor coupled to ground, a shunt inductor coupled to ground, a variable series capacitor , and a series inductor coupled to the variable series capacitor .
An anchoring assembly for enclosures that comprise at least one laminar screen , which has at least one rigid wire , and at least one post , for supporting the screen with vertical orientation, said anchoring assembly comprising at least: - a pin provided with a head and with a shank , said shank having a transverse space occupation and being configured to be inserted into a hole which is provided along the post , until the head abuts on the post and an end portion of said shank exits on the opposite side of the post, said pin having lateral tabs that can move elastically between a non-deformed configuration, in which they protrude from the lateral surface of said end portion of said shank , and at least one deformed configuration, in which they are kept inside the transverse space occupation of said shank , characterised in that the anchoring assembly further comprises: - a clamp that comprises a first jaw and a second jaw , said second jaw being able to abut with a base surface thereof against the post and having a recess along said base surface which is configured to receive said shank with interference, it being possible to clamp the rigid wire in a position spaced apart from said base surface between said jaws , mutually tightened, - an at least partially threaded stem , which can be inserted into said jaws and into said shank until it is screwed into a female thread which is provided inside said pin , with consequent mutual tightening of said jaws and clamping in place of the rigid wire . - a pin provided with a head and with a shank , said shank having a transverse space occupation and being configured to be inserted into a hole which is provided along the post , until the head abuts on the post and an end portion of said shank exits on the opposite side of the post, said pin having lateral tabs that can move elastically between a non-deformed configuration, in which they protrude from the lateral surface of said end portion of said shank , and at least one deformed configuration, in which they are kept inside the transverse space occupation of said shank , - a clamp that comprises a first jaw and a second jaw , said second jaw being able to abut with a base surface thereof against the post and having a recess along said base surface which is configured to receive said shank with interference, it being possible to clamp the rigid wire in a position spaced apart from said base surface between said jaws , mutually tightened, - an at least partially threaded stem , which can be inserted into said jaws and into said shank until it is screwed into a female thread which is provided inside said pin , with consequent mutual tightening of said jaws and clamping in place of the rigid wire .
Pressure compensation element designed to compensate for differences in pressure between at least two space zones assigned to a field device used in automation engineering with a meter body , which consists of a securing element with an axial bore which is used to fix the pressure compensation element in a wall of the field device, and a disk-like support component with a side end surface , wherein the disk-like support component has a stop edge in two zones - axially offset in relation to one another - of the end surface , wherein a predefined number (n, where n ≥ 2) of recesses that extend radially and correspond to the axial bore is provided in the disk-like support component , wherein the recesses extending radially are offset in relation to one another by an angular offset wherein the recesses extending radially are provided with a liquid-blocking membrane that allows gas to pass in the area of the side end surface of the disk-like support component , wherein the membrane is designed in the form of a ring and is secured between the two stop edges , and wherein a protective cap is provided that covers the disk-like support component in the area of the front surface and the side end surface .
A blockchain-enabled networked computer for forming an accountable distributed computing system with different networked computers having access to a permissioned blockchain network , the blockchain-enabled networked computer comprising: at least one processor; and memory having instructions stored thereon that, when executed by the at least one processor, cause the networked computer to: compile and execute a smart contract , wherein the smart contract comprises a set of rules configuring the processor to 1) append into the permissioned blockchain network transactions including logs indicative of exchanging of messages between the networked computers having access to the permissioned blockchain network , 2) detect malicious behavior of the networked computer in reaching a consensus with the networked computers having access to the permissioned blockchain network , wherein the detection is performed based on kernel instrumentation of the networked computer and 3) revoke the access of the networked computer to the permissioned blockchain network upon detecting the malicious behavior; and execute a distributed computing program configured to reach the consensus with the networked computers having access to the permissioned blockchain network . compile and execute a smart contract , wherein the smart contract comprises a set of rules configuring the processor to 1) append into the permissioned blockchain network transactions including logs indicative of exchanging of messages between the networked computers having access to the permissioned blockchain network , 2) detect malicious behavior of the networked computer in reaching a consensus with the networked computers having access to the permissioned blockchain network , wherein the detection is performed based on kernel instrumentation of the networked computer and 3) revoke the access of the networked computer to the permissioned blockchain network upon detecting the malicious behavior; and execute a distributed computing program configured to reach the consensus with the networked computers having access to the permissioned blockchain network .
A vacuum lifter apparatus for lifting sheet material articles , comprising an upper chassis , a modular lower suction plate supported beneath the chassis, a controller and a source of vacuum air pressure, the suction plate comprising a suction lifting surface for providing vacuum lifting pressure to said articles, wherein: - the modular suction plate has a plurality of side-by-side modules (40, 40', 40"), each module providing a different portion of the suction lifting surface and having one or more air outlets, said outlets of one module being separate from said outlets of other modules and being in fluid communication with the corresponding portion of the suction lifting surface and not with different portions of the suction lifting surface; - the chassis comprises at least one air outlet connected to said source of vacuum air pressure for conveying said vacuum pressure to the suction lifting surface of the suction plate, and a plurality of separate air flow channels through the chassis, each of said channels leading from said outlets of one of said modules to said outlet of the chassis; and - said apparatus further comprises for each air flow channel an associated air flow valve and a valve actuator , the controller being operatively connected said valves, and the controller being configured, in use, to open and close said valves to separately control the vacuum pressure transmitted along said channels to each one of said modules (40, 40', 40") whereby the vacuum pressure conveyed to each one of said different portions of the suction lifting surface is individually controllable by the controller . - the modular suction plate has a plurality of side-by-side modules (40, 40', 40"), each module providing a different portion of the suction lifting surface and having one or more air outlets, said outlets of one module being separate from said outlets of other modules and being in fluid communication with the corresponding portion of the suction lifting surface and not with different portions of the suction lifting surface; - the chassis comprises at least one air outlet connected to said source of vacuum air pressure for conveying said vacuum pressure to the suction lifting surface of the suction plate, and a plurality of separate air flow channels through the chassis, each of said channels leading from said outlets of one of said modules to said outlet of the chassis; and - said apparatus further comprises for each air flow channel an associated air flow valve and a valve actuator , the controller being operatively connected said valves, and the controller being configured, in use, to open and close said valves to separately control the vacuum pressure transmitted along said channels to each one of said modules (40, 40', 40") whereby the vacuum pressure conveyed to each one of said different portions of the suction lifting surface is individually controllable by the controller .