mhurhangee/ep-ind-claims huggingface dataset:
A communication system comprising: a first terminal (100, 100A, 100B) configured to execute one or more applications (150, 150A, 150B, 150C); and a second terminal (200; 300, 300A, 300B, 300C) configured to communicate data with the first terminal through wireless communication, wherein the second terminal comprises a storage in which first information, which is an identification information (264; 262) corresponding to each application executed in the first terminal is stored as pairing information defining connection relation between each application executed in the first terminal and the second terminal, and a transmission unit configured to transmit, in response to a request from an application executed in the first terminal, second information (264; 262), which is the first information or information generated based on the first information, and the first terminal comprises a determination unit configured to determine processing related to data communication with the second terminal based on a result of a comparison between third information, which is identification information or information generated based on identification information corresponding to a running application on the first terminal, and the second information received from the second terminal. a first terminal (100, 100A, 100B) configured to execute one or more applications (150, 150A, 150B, 150C); and a second terminal (200; 300, 300A, 300B, 300C) configured to communicate data with the first terminal through wireless communication, wherein the second terminal comprises a storage in which first information, which is an identification information (264; 262) corresponding to each application executed in the first terminal is stored as pairing information defining connection relation between each application executed in the first terminal and the second terminal, and a transmission unit configured to transmit, in response to a request from an application executed in the first terminal, second information (264; 262), which is the first information or information generated based on the first information, and a storage in which first information, which is an identification information (264; 262) corresponding to each application executed in the first terminal is stored as pairing information defining connection relation between each application executed in the first terminal and the second terminal, and a transmission unit configured to transmit, in response to a request from an application executed in the first terminal, second information (264; 262), which is the first information or information generated based on the first information, and the first terminal comprises a determination unit configured to determine processing related to data communication with the second terminal based on a result of a comparison between third information, which is identification information or information generated based on identification information corresponding to a running application on the first terminal, and the second information received from the second terminal.
An atomizer, comprising a liquid storage assembly and an air guiding assembly detachably connected to the liquid storage assembly, the liquid storage assembly comprising a liquid storage pipe having a liquid storage chamber, a connecting member fixed at one end of the liquid storage pipe, an adjusting member rotatably received in the connecting member, and a pressing cover fixed at one end of the connecting member, wherein a bottom wall of the connecting member is provided with at least one first liquid inlet hole communicating with the liquid storage chamber, the adjusting member is provided with a third liquid inlet hole corresponding to the first liquid inlet hole, the pressing cover is provided with at least one clamping groove, the air guiding assembly comprises an air intake cover provided with a clamping claw capable of driving the adjustment member to rotate, the clamping claw cooperates with the clamping groove, when the air intake cover is rotated, the clamping claw drives the adjusting member to rotate along the clamping groove, to cause the third liquid inlet hole to communicate with the first liquid inlet hole or to cause the adjusting member to close the first liquid inlet hole.
A machine (10,500) for drag finishing of workpieces, the machine (10,500) comprising an outer frame which houses a tub (100,630) for the containment of finishing media, an operative group (90,90') integrally connected to an independent frame, the operative group (90,90') comprising a geared motor and a shaft suitable to transmit a rotary motion to the workpieces, wherein the machine (10,500) comprises a base frame which allows an approaching and distancing movement of the operative group (90,90') along a vertical axis with respect to the tub (100,630), characterized in that the machine (10,500) comprises a guide rail frame on which guides (40,41,42) are provided allowing a rotation of the independent frame in order to carry said operative group (90,90') into a position inclined by an angle (α) with respect to the vertical axis and viceversa, and wherein the arc shaped configuration of the guides (40,41,42) allows to the operative group (90,90') to rotate around a point that belongs to an axis around which the rotating movement of the workpieces occurs.
A composite material comprising glass fiber and a polymer blend comprising polylactic acid and polybutylene succinate, wherein the composite material comprises about 10 wt-% to about 80 wt-% of glass fibre, and wherein the polymer blend comprises about 20 wt-% to about 60 wt-% of PLA and about 40 wt-% to about 80 wt-% of PBS.
A holding device for detachably fastening a packaging on a luggage carrier of a two-wheeled vehicle, the packaging having at least one mounting section with at least one mounting opening,, with said holding device comprising at least one fastening mechanism extending along a longitudinal axis and having at least one fastening section for detachably fastening the holding device on the luggage carrier of the two-wheeled vehicle and at least one receiving section, which connects to the fastening section along the longitudinal axis and onto which the packaging can be pushed along the longitudinal axis by means of the mounting opening of the mounting section, with said receiving section having a circumferential cross section adapted to a cross section of the at least one mounting opening of the mounting section for receiving the mounting section of the packaging on the receiving section in a rotationally fixed manner, with said holding device comprising a locking element for locking the packaging on the receiving section, wherein the locking element is arranged on the receiving section in such a way that it can be rotated or pivoted relative to the receiving section between a locking position and a release position, namely such that a displacement of the packaging pushed onto the receiving section is blocked along the longitudinal axis in the locking position and released in the release position, characterized in that two fastening mechanisms are mechanically connected by means of a connecting mechanism in such a way that a relative adjusting movement between the two fastening mechanisms can be generated along their respective longitudinal axes, and in that the connecting mechanism comprises at least a first and a second threaded rod (21.1, 21.2), an adjusting nut and a lock nut in order to generate the adjusting movement.
An instrument panel assembly for displaying vehicle information, said assembly comprises: a panel holder; a panel information device mounted on the panel holder; a transparent lens overlaying the panel information device; a plastic lens retainer extending along a vertical axis from the rear surface of the transparent lens to the panel holder such that the transparent lens is retained distant from the panel information device; at least one elastic member arranged in contact with the lens retainer and arranged in a vertical elastic configuration between the transparent lens and the panel holder so as to damp shocks on the transparent lens; characterized in that the lens retainer comprises a 'V' shape elastic member that is a folding of the lens retainer arranged between the axial ends (22, 24) of the lens retainer so that the lens retainer is divided into a first portion and a second portion on respective opposite sides of the elastic member, the first portion extending vertically to the top axial end of the lens retainer in bearing contact with the rear surface of the transparent lens, the second portion extending vertically to the bottom axial end of the lens retainer. a panel holder; a panel information device mounted on the panel holder; a transparent lens overlaying the panel information device; a plastic lens retainer extending along a vertical axis from the rear surface of the transparent lens to the panel holder such that the transparent lens is retained distant from the panel information device; at least one elastic member arranged in contact with the lens retainer and arranged in a vertical elastic configuration between the transparent lens and the panel holder so as to damp shocks on the transparent lens; characterized in that the lens retainer comprises a 'V' shape elastic member that is a folding of the lens retainer arranged between the axial ends (22, 24) of the lens retainer so that the lens retainer is divided into a first portion and a second portion on respective opposite sides of the elastic member, the first portion extending vertically to the top axial end of the lens retainer in bearing contact with the rear surface of the transparent lens, the second portion extending vertically to the bottom axial end of the lens retainer.
An anti-Factor XII/XIIa-beta monoclonal antibody or antigen-binding fragment thereof that comprises: (i) a heavy chain variable (vH) region with the sequence of SEQ ID NOs: 73, 74 or 76, and (ii) a light chain variable (vL) region comprising light chain CDR1 of SEQ ID NO: 11, light chain CDR2 of SEQ ID NO: 12, and light chain CDR3 of SEQ ID NO: 13, wherein the vL region is more than 85% identical to the sequence of SEQ ID NO: 5. (i) a heavy chain variable (vH) region with the sequence of SEQ ID NOs: 73, 74 or 76, and (ii) a light chain variable (vL) region comprising light chain CDR1 of SEQ ID NO: 11, light chain CDR2 of SEQ ID NO: 12, and light chain CDR3 of SEQ ID NO: 13, wherein the vL region is more than 85% identical to the sequence of SEQ ID NO: 5.
Method for positive substance joining an electrode stack of several partial stacks, whereat a partial stack comprises an anode with an anode tab, a cathode with a cathode tab and at least one separator arranged between the anode and the cathode, and whereat at least one further separator is arranged between the partial stacks, characterized in that the several partial stacks are placed on top of each other in a stacking process, and the anode tabs of the several partial stacks are joint to each other and with an anode current collector in a multi-stage joining process, and the cathode tabs of the several partial stacks are joint to each other and with a cathode current collector in a multi-stage joining process, and the method further comprises the following steps: a1) Placing the anode current collector and the cathode current collector on a bottom of a depot; b1) Placing a first partial stack into the depot; c1) Joining the anode tab of the first partial stack with the anode current collector and joining the cathode tab of the first partial stack with the cathode current collector; d1) Placing a subsequent partial stack into the depot, whereat at least one further separator is placed between the previous partial stack and the subsequent partial stack; e1) Joining the anode tab of the subsequent partial stack with the anode tab of the previous partial stack and joining the cathode tab of the subsequent partial stack with the cathode tab of the previous partial stack; f1) Repeating steps d) and e) until the anode tab of the last partial stack of the electrode stack is joined to the anode tab of the next-to-last partial stack of the electrode stack, and until the cathode tab of the last partial stack of the electrode stack is joined to the cathode tab of the next-to-last partial stack of the electrode stack. a1) Placing the anode current collector and the cathode current collector on a bottom of a depot; b1) Placing a first partial stack into the depot; c1) Joining the anode tab of the first partial stack with the anode current collector and joining the cathode tab of the first partial stack with the cathode current collector; d1) Placing a subsequent partial stack into the depot, whereat at least one further separator is placed between the previous partial stack and the subsequent partial stack; e1) Joining the anode tab of the subsequent partial stack with the anode tab of the previous partial stack and joining the cathode tab of the subsequent partial stack with the cathode tab of the previous partial stack; f1) Repeating steps d) and e) until the anode tab of the last partial stack of the electrode stack is joined to the anode tab of the next-to-last partial stack of the electrode stack, and until the cathode tab of the last partial stack of the electrode stack is joined to the cathode tab of the next-to-last partial stack of the electrode stack.
A refining agent as a desulfurizing agent, the refining agent consisting of light-burnt dolomite as a MgO source and a CaO source, a metal Al source, and optionally at least one of another MgO source and another CaO source, all as source materials, optionally along with a forming binder, wherein Al/MgO is 0.05 or more and 0.6 or less in mass ratio, and CaO/MgO is in a range of more than 1.5 and up to 10.0 in mass ratio the source materials are mixed as mixture powder with an average particle size of 1 mm or less, and the forming binder optionally contained sets the mixture powder in a pelletized or lumped form with a size of 3 mm to 40 mm.
A method for packet detection in a wireless communication network for power grid control, the wireless communication network employing time based scheduling of packets, the method being performed by a packet receiver in the wireless communication network, the method comprising: receiving a packet from a packet transmitter (200b, 200c,..., 200N), wherein the packet comprises a preamble, wherein the preamble is composed of a single orthogonal frequency-division multiplexing, OFDM, symbol and represented by a sequence of samples, and wherein at least part of the preamble is received within a packet detection window; and performing packet detection in order to find start of the packet only on those samples received within the packet detection window. receiving a packet from a packet transmitter (200b, 200c,..., 200N), wherein the packet comprises a preamble, wherein the preamble is composed of a single orthogonal frequency-division multiplexing, OFDM, symbol and represented by a sequence of samples, and wherein at least part of the preamble is received within a packet detection window; and performing packet detection in order to find start of the packet only on those samples received within the packet detection window.
An extensible mesh bistructure (BISM 1, BISM 2, BISM 3, BISM 4) characterised in that it comprises: • a first mesh structure (SM 1), the meshes being distributed along a first plane, the first mesh structure (SM 1) being foldable along a first direction (D 1) included in the first plane (P 1); • a frame structure comprising at least two longitudinal elements integral with the first mesh structure (SM 1) and arranged on either side of the opposite edges of said first mesh structure (SM 1) and enabling the dimensions of the bistructure to be varied; • a second mesh structure (SM 2), the meshes being distributed along a second plane (P 2) parallel to the first plane, the second mesh structure (SM 2) being foldable along the first direction (D 1); • connecting means between the first mesh structure (SM 1) and the second mesh structure (SM 2) so as to make both mesh structures integral with each other, the connecting means enabling the foldings of both mesh structures (SM 1, SM 2) to be synchronised in the first direction (D 1), the first and second mesh structures being woven such that each mesh of each of the mesh structures is sewn with its neighbour meshes. • a first mesh structure (SM 1), the meshes being distributed along a first plane, the first mesh structure (SM 1) being foldable along a first direction (D 1) included in the first plane (P 1); • a frame structure comprising at least two longitudinal elements integral with the first mesh structure (SM 1) and arranged on either side of the opposite edges of said first mesh structure (SM 1) and enabling the dimensions of the bistructure to be varied; • a second mesh structure (SM 2), the meshes being distributed along a second plane (P 2) parallel to the first plane, the second mesh structure (SM 2) being foldable along the first direction (D 1); • connecting means between the first mesh structure (SM 1) and the second mesh structure (SM 2) so as to make both mesh structures integral with each other, the connecting means enabling the foldings of both mesh structures (SM 1, SM 2) to be synchronised in the first direction (D 1),
A steering shaft for a motor vehicle, comprising a hollow shaft in which an inner shaft is arranged telescopically coaxially in the axial direction, wherein at least one rolling body is held with form fit in the circumferential direction and able to roll in the axial direction in a rolling body holding element of a rolling body cage arranged between the inner shaft and the hollow shaft, which is arranged in the axial direction between radially projecting stop elements of the hollow shaft and radially projecting stop elements of the inner shaft, wherein the rolling body cage has end-face axial support surfaces which are oriented in the axial direction against the stop elements (24, 34), wherein the rolling body cage has at least one transfer element extending axially between the support surfaces, characterized in that the transfer element is formed at least partly from a harder and/or stronger material than the material of the rolling body holding element.
A method of fastening structural metal reinforcement (10; 10') on a portion (2; 2') of a gas turbine blade (1; 1') made of composite material having fiber reinforcement densified by a matrix, the method comprising: positioning the structural metal reinforcement in an injection mold (20; 20'); positioning the portion of the blade onto which the structural metal reinforcement is to be fastened in the injection mold, the portion of the blade and the structural metal reinforcement being positioned relative to each other in their final relative position while leaving between them a gap (26; 26'); injecting adhesive into the gap between the structural metal reinforcement and the portion of the blade onto which the structural metal reinforcement is to be fastened; and polymerizing the adhesive. positioning the structural metal reinforcement in an injection mold (20; 20'); positioning the portion of the blade onto which the structural metal reinforcement is to be fastened in the injection mold, the portion of the blade and the structural metal reinforcement being positioned relative to each other in their final relative position while leaving between them a gap (26; 26'); injecting adhesive into the gap between the structural metal reinforcement and the portion of the blade onto which the structural metal reinforcement is to be fastened; and polymerizing the adhesive.
A computer-implemented method for providing an amplification quality metric to a user, the method comprising: receiving amplification data from a PCR amplification of a sample to generate a PCR amplification curve, wherein the amplification curve includes an exponential region and a transition region; determining a first value of the transition region, wherein the first value is a value of the amplification curve at the beginning of the transition region; determining a second value of the transition region, wherein the second value is a value of the amplification curve at the end of the transition region; calculating an amplification quality metric based on at least the first value and the second value; and displaying the amplification quality metric to a user; wherein the beginning of the transition region is the end of the exponential region, wherein determining the second value of the transition region comprises determining a value of the amplification curve 2-5 cycles from the first value, wherein the beginning of the transition region is determined by computing the peak of the second derivative of the amplification curve, and wherein calculating the amplification quality metric is taking the difference of the first value and the second value. receiving amplification data from a PCR amplification of a sample to generate a PCR amplification curve, wherein the amplification curve includes an exponential region and a transition region; determining a first value of the transition region, wherein the first value is a value of the amplification curve at the beginning of the transition region; determining a second value of the transition region, wherein the second value is a value of the amplification curve at the end of the transition region; calculating an amplification quality metric based on at least the first value and the second value; and displaying the amplification quality metric to a user; wherein the beginning of the transition region is the end of the exponential region, wherein determining the second value of the transition region comprises determining a value of the amplification curve 2-5 cycles from the first value, wherein the beginning of the transition region is determined by computing the peak of the second derivative of the amplification curve, and wherein calculating the amplification quality metric is taking the difference of the first value and the second value.
A method for producing an electrically conductive thin film on a substrate, said method comprising: dispersing a reducible metal compound and a reducing agent in a liquid; depositing said dispersion on a substrate to form a thin film; and exposing said thin film along with said substrate to a pulsed electromagnetic emission in an ambient atmosphere to chemically react said reducible metal compound and said reducing agent to render said thin film electrically conductive; characterized in that: said substrate is one of paper or Polyethylene terephthalate ("PET"). dispersing a reducible metal compound and a reducing agent in a liquid; depositing said dispersion on a substrate to form a thin film; and exposing said thin film along with said substrate to a pulsed electromagnetic emission in an ambient atmosphere to chemically react said reducible metal compound and said reducing agent to render said thin film electrically conductive; characterized in that: said substrate is one of paper or Polyethylene terephthalate ("PET"). said substrate is one of paper or Polyethylene terephthalate ("PET").