mhurhangee/patent-ind-claim-en huggingface dataset:
An unprinted electrophotographically printable fillable pouch made of an unprinted electrophotographically printable film comprising: (a) a multilayer polymer film comprising a base layer (a1) and a sealing layer (a2), preferably a heat-sealing layer, which is the inner layer of the pouch and (b) at least one toner-receiving layer as the outer layer deposited on the multilayer polymer film (a) from an aqueous coating composition comprising: (b1) a polymeric binder, (b2) fine inorganic particles having a median particle size (Dv50) of from 50 to 300 nm, preferably from 65 to 200 nm, and more preferably from 80 nm to 180 nm, as determined by laser diffraction according to ISO 13320:2020-01, and (b3) coarse inorganic and/or organic particles having a median particle size (Dv50) of from 3 to 14 μm, preferably from 5 to 13 μm, more preferably from 6 to 13, and most preferably from 7 to 12 μm, as determined by laser diffraction according to ISO 13320:2020-01; wherein the unprinted electrophotographically printable film has an average surface roughness Rz of from 3.0 to 12.0 μm, preferably from 4.0 to 10.0 μm, as determined on the surface of the toner-receiving layer (b) according to DIN EN ISO 4287:2010-07 with a sampling length In of 4.0 mm and a single sampling length Ir of 0.8 mm as defined in DIN EN ISO 4288:1998-04 with a 2 μm probe tip and an aperiodic profile setting. (a) a multilayer polymer film comprising a base layer (a1) and a sealing layer (a2), preferably a heat-sealing layer, which is the inner layer of the pouch and (b) at least one toner-receiving layer as the outer layer deposited on the multilayer polymer film (a) from an aqueous coating composition comprising: (b1) a polymeric binder, (b2) fine inorganic particles having a median particle size (Dv50) of from 50 to 300 nm, preferably from 65 to 200 nm, and more preferably from 80 nm to 180 nm, as determined by laser diffraction according to ISO 13320:2020-01, and (b3) coarse inorganic and/or organic particles having a median particle size (Dv50) of from 3 to 14 μm, preferably from 5 to 13 μm, more preferably from 6 to 13, and most preferably from 7 to 12 μm, as determined by laser diffraction according to ISO 13320:2020-01; wherein the unprinted electrophotographically printable film has an average surface roughness Rz of from 3.0 to 12.0 μm, preferably from 4.0 to 10.0 μm, as determined on the surface of the toner-receiving layer (b) according to DIN EN ISO 4287:2010-07 with a sampling length In of 4.0 mm and a single sampling length Ir of 0.8 mm as defined in DIN EN ISO 4288:1998-04 with a 2 μm probe tip and an aperiodic profile setting. (b1) a polymeric binder, (b2) fine inorganic particles having a median particle size (Dv50) of from 50 to 300 nm, preferably from 65 to 200 nm, and more preferably from 80 nm to 180 nm, as determined by laser diffraction according to ISO 13320:2020-01, and (b3) coarse inorganic and/or organic particles having a median particle size (Dv50) of from 3 to 14 μm, preferably from 5 to 13 μm, more preferably from 6 to 13, and most preferably from 7 to 12 μm, as determined by laser diffraction according to ISO 13320:2020-01;
A connector system comprising: a receptacle connector comprising a receptacle housing having a front and a rear opposite the front, the front having a front opening , the receptacle housing having a top and a bottom , the receptacle housing having a cavity accessible through the front opening, the receptacle connector having a receptacle connector platform below the cavity supporting receptacle contacts , the receptacle connector platform being angled relative to the front and being angled relative to the top; and a first plug connector received in the cavity through the front opening, the first plug connector having a plug housing holding plug conductors , the plug housing having a top and a bottom , the plug housing having a mating end and a cable end with a cable extending from the cable end, the plug housing having a plug connector platform at the bottom having a mating interface with the plug conductors exposed at the mating interface, the plug connector platform being angled at a complementary angle to the receptacle connector platform for mating the plug conductors with the receptacle contacts, characterised by the receptacle housing top having a top opening open to the front opening , and by the cavity being accessible through the top opening , whereby the top opening provides access to the cavity for cleaning components of the receptacle connector for removing contaminants and debris from the cavity . a receptacle connector comprising a receptacle housing having a front and a rear opposite the front, the front having a front opening , the receptacle housing having a top and a bottom , the receptacle housing having a cavity accessible through the front opening, the receptacle connector having a receptacle connector platform below the cavity supporting receptacle contacts , the receptacle connector platform being angled relative to the front and being angled relative to the top; and a first plug connector received in the cavity through the front opening, the first plug connector having a plug housing holding plug conductors , the plug housing having a top and a bottom , the plug housing having a mating end and a cable end with a cable extending from the cable end, the plug housing having a plug connector platform at the bottom having a mating interface with the plug conductors exposed at the mating interface, the plug connector platform being angled at a complementary angle to the receptacle connector platform for mating the plug conductors with the receptacle contacts, characterised by the receptacle housing top having a top opening open to the front opening , and by the cavity being accessible through the top opening , whereby the top opening provides access to the cavity for cleaning components of the receptacle connector for removing contaminants and debris from the cavity .
A drum for a drum brake assembly, the drum comprising: an annular drum wall having an open end and an attachment end , wherein the drum wall further comprises an outer drum surface and an inner braking surface each of which extends between the open end and the attachment end ; a hub attachment section that is attachable to an associated wheel hub, wherein the hub attachment section extends radially about the attachment end of the drum wall forming a primary opening into which the associated wheel hub is receivable; and a drum wall connection section extending between the attachment end of the drum wall and the hub attachment section , wherein the drum wall connection section exclusively consists of a plurality of radially angled vanes connecting the attachment end of the annular drum wall with the hub attachment section interspersed with a corresponding plurality of air openings , wherein each of the plurality of air openings is circumferentially enclosed at an inner radial end by the hub attachment section and at an outer radial end by the attachment end of the drum wall , characterized in that the plurality of radially angled vanes are curved such that a length of the plurality of radially angled vanes is greater than a radial width of the drum wall connection section, wherein the plurality of radially angled vanes facilitate a radial expansion of the attachment end of the drum wall during operational rotation of the drum thereby reducing or eliminating an undesired 'bell mouthing' effect at the open end of the drum wall . an annular drum wall having an open end and an attachment end , wherein the drum wall further comprises an outer drum surface and an inner braking surface each of which extends between the open end and the attachment end ; a hub attachment section that is attachable to an associated wheel hub, wherein the hub attachment section extends radially about the attachment end of the drum wall forming a primary opening into which the associated wheel hub is receivable; and a drum wall connection section extending between the attachment end of the drum wall and the hub attachment section , wherein the drum wall connection section exclusively consists of a plurality of radially angled vanes connecting the attachment end of the annular drum wall with the hub attachment section interspersed with a corresponding plurality of air openings , wherein each of the plurality of air openings is circumferentially enclosed at an inner radial end by the hub attachment section and at an outer radial end by the attachment end of the drum wall , characterized in that the plurality of radially angled vanes are curved such that a length of the plurality of radially angled vanes is greater than a radial width of the drum wall connection section, wherein the plurality of radially angled vanes facilitate a radial expansion of the attachment end of the drum wall during operational rotation of the drum thereby reducing or eliminating an undesired 'bell mouthing' effect at the open end of the drum wall .
A base material processing apparatus comprising: a transport mechanism for transporting an elongated strip-shaped base material in a longitudinal direction thereof along a transport path formed by a plurality of rollers; a processing part for processing said base material in a processing position lying on said transport path; a force detection part for detecting a force applied in an axial direction of a rotation shaft of a sensing roller (31; 31C) or an amount of displacement in accordance with the force, said sensing roller (31; 31C) being at least one of said plurality of rollers; a meandering prediction part for predicting the meandering of said base material to output meandering prediction information, based on the force applied in the axial direction of the rotation shaft of said sensing roller (31; 31C); and a meandering correction part for correcting the widthwise position of said base material relative to said processing part , based on said meandering prediction information. a transport mechanism for transporting an elongated strip-shaped base material in a longitudinal direction thereof along a transport path formed by a plurality of rollers; a processing part for processing said base material in a processing position lying on said transport path; a force detection part for detecting a force applied in an axial direction of a rotation shaft of a sensing roller (31; 31C) or an amount of displacement in accordance with the force, said sensing roller (31; 31C) being at least one of said plurality of rollers; a meandering prediction part for predicting the meandering of said base material to output meandering prediction information, based on the force applied in the axial direction of the rotation shaft of said sensing roller (31; 31C); and a meandering correction part for correcting the widthwise position of said base material relative to said processing part , based on said meandering prediction information.
A decorative sheet comprising: a first refractive index layer having a first refractive index; a decorative layer; a second refractive index layer that is a resin layer having a second refractive index lower than the first refractive index and provided between the first refractive index layer and the decorative layer; and a light diffusion layer that is provided in partial contact with one surface of the first refractive index layer and diffuses light entering from the first refractive index layer so that light is released from part of the front surface of the decorative sheet, characterised in that the decorative layer is provided on the back surface side of the first refractive index layer through the second refractive index layer, and the light diffusion layer is provided in partial contact with the front surface of the first refractive index layer. a first refractive index layer having a first refractive index; a decorative layer; a second refractive index layer that is a resin layer having a second refractive index lower than the first refractive index and provided between the first refractive index layer and the decorative layer; and a light diffusion layer that is provided in partial contact with one surface of the first refractive index layer and diffuses light entering from the first refractive index layer so that light is released from part of the front surface of the decorative sheet, characterised in that the decorative layer is provided on the back surface side of the first refractive index layer through the second refractive index layer, and the light diffusion layer is provided in partial contact with the front surface of the first refractive index layer.
A method for providing capacitive sensor detection with at least one capacitive sensor comprising a transmitting electrode and a receiving electrode capacitively coupled with the transmitting electrode, the method comprising: generating a stimulus at the transmitting electrode , wherein the stimulus comprises a sequence of pulses, receiving a signal from the receiving electrode in response to the stimulus at the transmitting electrode and generating a data packet (p n ) comprising a plurality of samples of the signal received from the receiving electrode , the samples being generated between a start and a stop time (ti, ti+i) of the data packet (p n ); weighting the plurality of samples by providing less gain at a beginning and end of the data packet (p n ) with respect to a center of the data packet (p n ), in such a way as to reduce but not entirely cancel the contribution of the beginning and end of the packet (p n ); and integrating the weighted samples to generate a single output value for the data packet (p n ). generating a stimulus at the transmitting electrode , wherein the stimulus comprises a sequence of pulses, receiving a signal from the receiving electrode in response to the stimulus at the transmitting electrode and generating a data packet (p n ) comprising a plurality of samples of the signal received from the receiving electrode , the samples being generated between a start and a stop time (ti, ti+i) of the data packet (p n ); weighting the plurality of samples by providing less gain at a beginning and end of the data packet (p n ) with respect to a center of the data packet (p n ), in such a way as to reduce but not entirely cancel the contribution of the beginning and end of the packet (p n ); and integrating the weighted samples to generate a single output value for the data packet (p n ).
An outdoor unit of an air-conditioning apparatus, comprising: a housing having a substantially rectangular parallelepiped shape; at least one heat exchanger formed into a substantially L-shape, the heat exchanger being disposed along the inside of one side of the housing and along the inside of the rear of the housing ; and a securing member configured to secure the heat exchanger to the housing , wherein the housing includes a front panel, characterized in that the housing further includes a first side panel configured to form a part of the one side of the housing and to partially extend to the front of the housing , and a second side panel disposed closer to the rear of the housing than the first side panel is, the second side panel being configured to form at least a part of the one side of the housing , wherein the front panel is configured to form the front of the housing together with the part of the first side panel ; an end portion of the front panel is connected, at the front of the housing , to an end portion of the first side panel ; an air inlet is formed between the first side panel and the second side panel ; and the securing member is interposed between a front end portion of the heat exchanger and the connection between the end portion of the front panel and the end portion of the first side panel , and thereby secures the heat exchanger to the front panel. a housing having a substantially rectangular parallelepiped shape; at least one heat exchanger formed into a substantially L-shape, the heat exchanger being disposed along the inside of one side of the housing and along the inside of the rear of the housing ; and a securing member configured to secure the heat exchanger to the housing , wherein the housing includes a front panel, characterized in that the housing further includes a first side panel configured to form a part of the one side of the housing and to partially extend to the front of the housing , and a second side panel disposed closer to the rear of the housing than the first side panel is, the second side panel being configured to form at least a part of the one side of the housing , wherein the front panel is configured to form the front of the housing together with the part of the first side panel ; an end portion of the front panel is connected, at the front of the housing , to an end portion of the first side panel ; an air inlet is formed between the first side panel and the second side panel ; and the securing member is interposed between a front end portion of the heat exchanger and the connection between the end portion of the front panel and the end portion of the first side panel , and thereby secures the heat exchanger to the front panel.
A battery cell for a flow battery (α), comprising: a cell frame including a frame including a through-window and a manifold serving as an electrolyte flow path, and a bipolar plate ; a positive electrode disposed on one surface side of the bipolar plate ; and a negative electrode disposed on another surface side of the bipolar plate , wherein in the frame , a thickness of a portion in which the manifold is formed is defined as Ft; in the bipolar plate , a thickness of a portion blocking the through-window is defined as Bt; in the positive electrode , a thickness of a portion facing the bipolar plate is defined as Pt; in the negative electrode , a thickness of a portion facing the bipolar plate is defined as Nt; characterised in that the bipolar plate blocks the through-window and these thicknesses satisfy 8 mm ≥ Ft ≥ 4 mm , Ft − 0.5 mm ≥ Bt ≥ Ft − 3.0 mm , Pt ≤ 1.5 mm , and Nt ≤ 1.5 mm . a cell frame including a frame including a through-window and a manifold serving as an electrolyte flow path, and a bipolar plate ; a positive electrode disposed on one surface side of the bipolar plate ; and a negative electrode disposed on another surface side of the bipolar plate , wherein in the frame , a thickness of a portion in which the manifold is formed is defined as Ft; in the bipolar plate , a thickness of a portion blocking the through-window is defined as Bt; in the positive electrode , a thickness of a portion facing the bipolar plate is defined as Pt; in the negative electrode , a thickness of a portion facing the bipolar plate is defined as Nt; characterised in that the bipolar plate blocks the through-window and these thicknesses satisfy 8 mm ≥ Ft ≥ 4 mm , Ft − 0.5 mm ≥ Bt ≥ Ft − 3.0 mm , Pt ≤ 1.5 mm , and Nt ≤ 1.5 mm .
Energy conversion device for a vehicle, which has - in at least one mode a unit operating as a generator unit with at least one synchronous machine , - at least one energy diverting unit that is provided for the purpose of diverting at least some of the electrical energy generated by the generator unit , and at least one resistor unit , - a detecting unit for detecting at least one kinematic parameter (K) of the vehicle, wherein the kinematic parameter (K) is representative of a speed (V) of the vehicle, and - a control unit that is provided for the purpose of selecting operating modes from a plurality of operating modes, in each of which the resistor unit provides a different resistance value, as a function of selecting the detected kinematic parameter (K), characterised in that the control unit is further provided for the purpose of switching over from a first operating mode to a second operating mode in the event of a transition from a high-speed range to a medium-speed range, for the purpose of reducing the resistance value. - in at least one mode a unit operating as a generator unit with at least one synchronous machine , - at least one energy diverting unit that is provided for the purpose of diverting at least some of the electrical energy generated by the generator unit , and at least one resistor unit , - a detecting unit for detecting at least one kinematic parameter (K) of the vehicle, wherein the kinematic parameter (K) is representative of a speed (V) of the vehicle, and - a control unit that is provided for the purpose of selecting operating modes from a plurality of operating modes, in each of which the resistor unit provides a different resistance value, as a function of selecting the detected kinematic parameter (K), characterised in that the control unit is further provided for the purpose of switching over from a first operating mode to a second operating mode in the event of a transition from a high-speed range to a medium-speed range, for the purpose of reducing the resistance value.
A device for measuring local strains and/or strains inside a measuring volume of a structure of materials having known mechanical properties, the device comprising: - a test body of ellipsoidal shape intended to be included in the measuring volume , and made of homogeneous material with known mechanical properties, - k deformation measuring fibres (7, 7a-7f) disposed in k independent directions and attached inside said test body , such that deformations of the test body are transmitted to the measuring fibres (7, 7a-7f), k being comprised between 2 and 6, - connecting means (8, 8a-8c) of the k measuring fibres (7, 7a-7f) to a system adapted to detect signals originating from the measuring fibres (7, 7a-7f) representative of the deformations of the measuring fibres (7, 7a-7f) and determine the local strains and/or deformations from at least the detected signals and the known mechanical properties of the materials of the test body and the structure , the k measuring fibres (7, 7a-7f) being arranged to determine independent components of the tensor of the strains in the test body . - a test body of ellipsoidal shape intended to be included in the measuring volume , and made of homogeneous material with known mechanical properties, - k deformation measuring fibres (7, 7a-7f) disposed in k independent directions and attached inside said test body , such that deformations of the test body are transmitted to the measuring fibres (7, 7a-7f), k being comprised between 2 and 6, - connecting means (8, 8a-8c) of the k measuring fibres (7, 7a-7f) to a system adapted to detect signals originating from the measuring fibres (7, 7a-7f) representative of the deformations of the measuring fibres (7, 7a-7f) and determine the local strains and/or deformations from at least the detected signals and the known mechanical properties of the materials of the test body and the structure , the k measuring fibres (7, 7a-7f) being arranged to determine independent components of the tensor of the strains in the test body .
An implantable medical device comprising a battery cell having a capacity C 2. comprising: an anode ; a cathode comprising fluorinated carbon particles; a separator between the anode and the cathode; and an electrolyte contacting the anode, the cathode, and the separator; characterised in that greater than 50 vol-% of the fluorinated carbon particles have a particle size within a range of 2 microns to 10 microns; and greater than 50% by number of the fluorinated carbon particles have an aspect ratio within a range of 1:1.2 to 1:8; and the battery cell has a volumetric capacity of at least 1104 mAh/cc when discharged at 37° C° at C/100 to C/1000 rate. an anode ; a cathode comprising fluorinated carbon particles; a separator between the anode and the cathode; and an electrolyte contacting the anode, the cathode, and the separator; characterised in that greater than 50 vol-% of the fluorinated carbon particles have a particle size within a range of 2 microns to 10 microns; and greater than 50% by number of the fluorinated carbon particles have an aspect ratio within a range of 1:1.2 to 1:8; and the battery cell has a volumetric capacity of at least 1104 mAh/cc when discharged at 37° C° at C/100 to C/1000 rate.