mhurhangee/patent-ind-claim-en huggingface dataset:
A power supply device comprising: a battery block including a plurality of battery cells , the plurality of battery cells including positive electrodes and negative electrodes , each of the plurality of battery cells including a corresponding one of the positive electrodes and a corresponding one of the negative electrodes at both ends of the each of the plurality of battery cells ; lead plates connected to the positive electrode and the negative electrode of the plurality of battery cells to electrically connect the battery cells to one another; and a sheet heater configured to heat the battery cells , wherein the sheet heater is placed on a surface of the plurality of battery cells via one of the lead plates on a side of the negative electrode of the plurality of battery cells , the sheet heater being thermally coupled to the surfaces of the plurality of battery cells , characterized in that a plurality of core modules are disposed in an array in the battery block such that negative electrode surfaces and positive electrode surfaces are alternately disposed while one or more negative electrode surfaces out of the negative electrode surfaces are flush with one or more positive electrode surfaces out of the positive electrode surfaces , the sheet heater includes: a plurality of heating sheet portions configured to heat the negative electrode surfaces of the plurality of core modules; and a joining sheet portion configured to join adjacent ones of the heating sheet portions , and the joining sheet portion is disposed opposed to one of the positive electrode surfaces of the plurality of core modules. a battery block including a plurality of battery cells , the plurality of battery cells including positive electrodes and negative electrodes , each of the plurality of battery cells including a corresponding one of the positive electrodes and a corresponding one of the negative electrodes at both ends of the each of the plurality of battery cells ; lead plates connected to the positive electrode and the negative electrode of the plurality of battery cells to electrically connect the battery cells to one another; and a sheet heater configured to heat the battery cells , wherein the sheet heater is placed on a surface of the plurality of battery cells via one of the lead plates on a side of the negative electrode of the plurality of battery cells , the sheet heater being thermally coupled to the surfaces of the plurality of battery cells , the sheet heater includes: a plurality of heating sheet portions configured to heat the negative electrode surfaces of the plurality of core modules; and a joining sheet portion configured to join adjacent ones of the heating sheet portions , and a plurality of heating sheet portions configured to heat the negative electrode surfaces of the plurality of core modules; and a joining sheet portion configured to join adjacent ones of the heating sheet portions , and the joining sheet portion is disposed opposed to one of the positive electrode surfaces of the plurality of core modules.
An imaging device comprising: a photoelectric conversion unit in which a first electrode , a photoelectric conversion layer , and a second electrode are stacked, wherein a semiconductor material layer including an inorganic oxide semiconductor material having an amorphous structure at least in a portion is formed between the first electrode and the photoelectric conversion layer , and a formation energy of an inorganic oxide semiconductor material that has the same composition as the inorganic oxide semiconductor material having an amorphous structure and has a crystalline structure has a positive value, so that an energy state of the semiconductor material layer that has the same composition as the inorganic oxide semiconductor material having an amorphous structure, but has a crystalline structure, is lower (more stable) than the energy state estimated on the assumption that the inorganic oxide semiconductor material is separated into single-metal oxide crystals with fewer elements, characterised in that the semiconductor material layer is formed of Ga x1 Sn y1 O, and satisfies 0.28 ≤ y 1 / x 1 + y 1 ≤ 0.38 . a photoelectric conversion unit in which a first electrode , a photoelectric conversion layer , and a second electrode are stacked, wherein a semiconductor material layer including an inorganic oxide semiconductor material having an amorphous structure at least in a portion is formed between the first electrode and the photoelectric conversion layer , and a formation energy of an inorganic oxide semiconductor material that has the same composition as the inorganic oxide semiconductor material having an amorphous structure and has a crystalline structure has a positive value, so that an energy state of the semiconductor material layer that has the same composition as the inorganic oxide semiconductor material having an amorphous structure, but has a crystalline structure, is lower (more stable) than the energy state estimated on the assumption that the inorganic oxide semiconductor material is separated into single-metal oxide crystals with fewer elements, characterised in that the semiconductor material layer is formed of Ga x1 Sn y1 O, and satisfies 0.28 ≤ y 1 / x 1 + y 1 ≤ 0.38 .
A gripper unit , comprising a housing and a vacuum distribution unit connected to the housing such that linear motion of the vacuum distribution unit is allowed in a first direction towards and away from the housing , wherein the gripper unit comprises: - at least a first leaf spring connecting the vacuum distribution unit to the housing ; - at least one vacuum suction cup , wherein the at least one suction cup is moveable between an idle position in which the at least one suction cup is arranged completely within the housing of the gripper unit , and an active position in which the at least one suction cup is extending out from said housing , wherein the position of the at least one suction cup is controlled using vacuum, characterized by further comprising a control suction cup . - at least a first leaf spring connecting the vacuum distribution unit to the housing ; - at least one vacuum suction cup , wherein the at least one suction cup is moveable between an idle position in which the at least one suction cup is arranged completely within the housing of the gripper unit , and an active position in which the at least one suction cup is extending out from said housing , wherein the position of the at least one suction cup is controlled using vacuum, characterized by further comprising a control suction cup . wherein the position of the at least one suction cup is controlled using vacuum, characterized by further comprising a control suction cup .
A method of signing video data, the method comprising: obtaining video data representing a video sequence; obtaining a bitstring not extracted from the video data; providing a salt based on the bitstring; generating (116.1) a first fingerprint by hashing a) a combination of the salt and a first portion of the video data, or b) a combination of the salt and a hash of a first portion of the video data; providing a signature of the video data, which includes the first fingerprint, characterized in that the salt is provided by hashing the bitstring, in that the salt and the first fingerprint are generated using different hash functions, and in that the method further comprises: sharing , over a private communication path, a definition of the hash function for generating the salt with a recipient of the signed video data. obtaining video data representing a video sequence; obtaining a bitstring not extracted from the video data; providing a salt based on the bitstring; generating (116.1) a first fingerprint by hashing a) a combination of the salt and a first portion of the video data, or b) a combination of the salt and a hash of a first portion of the video data; a) a combination of the salt and a first portion of the video data, or b) a combination of the salt and a hash of a first portion of the video data; providing a signature of the video data, which includes the first fingerprint, characterized in that the salt is provided by hashing the bitstring, in that the salt and the first fingerprint are generated using different hash functions, and in that the method further comprises: sharing , over a private communication path, a definition of the hash function for generating the salt with a recipient of the signed video data.
An arrangement for supporting a steel pile (5; 17; 26; 35) in an impact pile driving device, the arrangement comprising a cushion element (1; 10, 20; 30) being a metal piece having an impact surface , a side surface and a supporting surface (4, 14; 23; 31), to which the steel pile (5; 17; 26; 35) can be supported, and in which arrangement the supporting surface (4; 14; 23, 31) is provided with one or more absorbing surfaces (6; 16; 25; 33) that can be placed against the end of the wall (8; 18; 27; 36) of the steel pile (5; 17; 26, 35), characterized in that the material of the cushion element (1; 10, 20; 30) is harder than the end of the wall (8; 18; 27; 36) of the steel pile (5; 17; 27; 35) abutting the one or more absorbing surfaces (6; 16; 25; 33) and that by the effect of the impact driving at least part of the end of the wall (8; 18; 27; 36) at the one or more absorbing surfaces (6; 16; 25; 33) has been shaped against the one or more absorbing surfaces (6; 16; 25; 33), whereupon the movement of the wall (8; 18; 27; 36) in the direction of a plane transverse to the direction of impact driving of the steel pile is prevented, at least at the position of the head of the steel pile (5; 17; 26; 35).
An apparatus comprising: an image processor configured to receive a video including an object (obj_r), determine a positional relationship between the apparatus and the object (obj_r), change a positional relationship between an image (obj_v) superimposed on the video and the object (obj_r) when the positional relationship between the apparatus and the object (obj_r) changes; determine, as the positional relationship between the apparatus and the object (obj_r), an angle (A1, A2) between a direction of the object (obj_r) and a direction of the apparatus ; determine that the positional relationship between the image (obj_v) superimposed on the video and the object (obj_r) is a front view relationship when the angle (A1) is below a first threshold angle (Tl); and change the positional relationship between the image (obj_v) superimposed on the video and the object (obj_r) from the front view relationship to an oblique view relationship when the angle (A1) exceeds the first threshold angle (T1), and/or from the oblique relationship to the front view relationship when the angle (A1) drops below a second threshold angle (T2). receive a video including an object (obj_r), determine a positional relationship between the apparatus and the object (obj_r), change a positional relationship between an image (obj_v) superimposed on the video and the object (obj_r) when the positional relationship between the apparatus and the object (obj_r) changes; determine, as the positional relationship between the apparatus and the object (obj_r), an angle (A1, A2) between a direction of the object (obj_r) and a direction of the apparatus ; determine that the positional relationship between the image (obj_v) superimposed on the video and the object (obj_r) is a front view relationship when the angle (A1) is below a first threshold angle (Tl); and change the positional relationship between the image (obj_v) superimposed on the video and the object (obj_r) from the front view relationship to an oblique view relationship when the angle (A1) exceeds the first threshold angle (T1), and/or from the oblique relationship to the front view relationship when the angle (A1) drops below a second threshold angle (T2).
A rotor for a gas turbine engine comprising: a hub having an outer periphery ; characterised by further comprising: a first plurality of blades welded to the outer periphery of the hub , the first plurality of blades being made of a first material and having a first elastic modulus over density ratio, the first plurality of blades having a first natural frequency; and a second plurality of blades welded to the outer periphery of the hub , the second plurality of blades being made of a second material and having a second elastic modulus over density ratio, the second elastic modulus over density ratio being different from the first elastic modulus over density ratio, the second plurality of blades having a second natural frequency different from the first natural frequency, wherein the first plurality of blades and the second plurality of blades have a same geometrical shape, and the first plurality of blades and the second plurality of blades are made of different alloys of titanium. a hub having an outer periphery ; characterised by further comprising: a first plurality of blades welded to the outer periphery of the hub , the first plurality of blades being made of a first material and having a first elastic modulus over density ratio, the first plurality of blades having a first natural frequency; and a second plurality of blades welded to the outer periphery of the hub , the second plurality of blades being made of a second material and having a second elastic modulus over density ratio, the second elastic modulus over density ratio being different from the first elastic modulus over density ratio, the second plurality of blades having a second natural frequency different from the first natural frequency, wherein the first plurality of blades and the second plurality of blades have a same geometrical shape, and the first plurality of blades and the second plurality of blades are made of different alloys of titanium. a first plurality of blades welded to the outer periphery of the hub , the first plurality of blades being made of a first material and having a first elastic modulus over density ratio, the first plurality of blades having a first natural frequency; and a second plurality of blades welded to the outer periphery of the hub , the second plurality of blades being made of a second material and having a second elastic modulus over density ratio, the second elastic modulus over density ratio being different from the first elastic modulus over density ratio, the second plurality of blades having a second natural frequency different from the first natural frequency, wherein the first plurality of blades and the second plurality of blades have a same geometrical shape, and the first plurality of blades and the second plurality of blades are made of different alloys of titanium.
A shaft kiln for burning in particular carbonate-containing material having a shaft comprising in the flow direction of the material a material inlet , at least one burning zone for burning the material having at least one fuel conduit for admitting fuel into the burning zone , a cooling zone having a cooling air inlet for cooling the burnt material and a material outlet for discharging the material from the shaft kiln , wherein the shaft kiln comprises an offgas withdrawal conduit for discharging offgas from the shaft , characterized in that the shaft kiln comprises a cooling gas withdrawal means for discharging cooling air from the shaft which extends from the cooling zone into the burning zone and from the burning zone out of the shaft , wherein the cooling gas withdrawal means is connected to a control element for controlling the amount of gas flowing through the cooling gas withdrawal means . a material inlet , at least one burning zone for burning the material having at least one fuel conduit for admitting fuel into the burning zone , a cooling zone having a cooling air inlet for cooling the burnt material and a material outlet for discharging the material from the shaft kiln , wherein the shaft kiln comprises an offgas withdrawal conduit for discharging offgas from the shaft , characterized in that the shaft kiln comprises a cooling gas withdrawal means for discharging cooling air from the shaft which extends from the cooling zone into the burning zone and from the burning zone out of the shaft , wherein the cooling gas withdrawal means is connected to a control element for controlling the amount of gas flowing through the cooling gas withdrawal means .
A vibrating device comprising: a vibrating element including a vibrating body that is tubular and has a first opening end surface and a second opening end surface ; a support that extends in an axial direction and supports the vibrating body , the axial direction being a direction connecting the first opening end surface and the second opening end surface of the vibrating body ; and a connecting member that connects the vibrating body and the support to each other, wherein the vibrating body is configured to vibrate in a breathing vibration mode such that a first node and a second node are generated on the vibrating element at different positions in the axial direction, and wherein the connecting member is positioned between the first node and the second node, wherein the first node is positioned on the vibrating body , and wherein a vibrational displacement of the vibrating body in the axial direction at a position at which the connecting member is connected is less than or equal to 40% of a vibrational displacement of the vibrating body in the axial direction at a position of the first node. a vibrating element including a vibrating body that is tubular and has a first opening end surface and a second opening end surface ; a support that extends in an axial direction and supports the vibrating body , the axial direction being a direction connecting the first opening end surface and the second opening end surface of the vibrating body ; and a connecting member that connects the vibrating body and the support to each other, wherein the vibrating body is configured to vibrate in a breathing vibration mode such that a first node and a second node are generated on the vibrating element at different positions in the axial direction, and wherein the connecting member is positioned between the first node and the second node, wherein the first node is positioned on the vibrating body , and wherein a vibrational displacement of the vibrating body in the axial direction at a position at which the connecting member is connected is less than or equal to 40% of a vibrational displacement of the vibrating body in the axial direction at a position of the first node.
A yarn package knot releasing device for releasing a knot in a yarn package (P1) in which a yarn portion at the end of winding of a yarn layer (YL) formed by winding a yarn (Y) on a bobbin (B1) is tied on an outer peripheral surface of the yarn layer by a knot (KN) including a slip knot, comprising: a yarn capturing portion which captures an end (Y1) of the yarn portion at the end of winding by suction; a receiving portion which contacts the yarn capturing portion so that the end of the yarn portion at the end of winding captured by the yarn capturing portion is sandwiched between the yarn capturing portion and the receiving portion; a guide portion which guides the receiving portion from a first position (PA) to a second position (PB) in a direction moving away from the yarn package; and a yarn capturing portion moving portion which allows the yarn capturing portion to contact the receiving portion at the first position and moves the yarn capturing portion to the second position in a direction moving away from the yarn package while guiding the receiving portion by the guide portion in a state in which the yarn capturing portion contacts the receiving portion. a yarn capturing portion which captures an end (Y1) of the yarn portion at the end of winding by suction; a receiving portion which contacts the yarn capturing portion so that the end of the yarn portion at the end of winding captured by the yarn capturing portion is sandwiched between the yarn capturing portion and the receiving portion; a guide portion which guides the receiving portion from a first position (PA) to a second position (PB) in a direction moving away from the yarn package; and a yarn capturing portion moving portion which allows the yarn capturing portion to contact the receiving portion at the first position and moves the yarn capturing portion to the second position in a direction moving away from the yarn package while guiding the receiving portion by the guide portion in a state in which the yarn capturing portion contacts the receiving portion.
A method for wireless communications at an access point , comprising: identifying one or more receiving wireless devices for which to send a wake-up radio, WUR, frame; obtaining a basic service set identifier, BSSID, for the access point, the BSSID being known by the one or more receiving wireless devices; performing a hashing function to the BSSID to obtain a hashed BSSID; using a first portion of the hashed BSSID as a first identifier; using a second portion of the hashed BSSID as a third identifier; calculating a cyclic redundancy check, CRC, over a set of calculation fields that includes a field with the third identifier to obtain a CRC value; generating the WUR frame for transmission with an address identifier field that includes either the first identifier or a second identifier, wherein the second identifier is based at least in part on the first identifier; and transmitting the WUR frame to the one or more receiving wireless devices. identifying one or more receiving wireless devices for which to send a wake-up radio, WUR, frame; obtaining a basic service set identifier, BSSID, for the access point, the BSSID being known by the one or more receiving wireless devices; performing a hashing function to the BSSID to obtain a hashed BSSID; using a first portion of the hashed BSSID as a first identifier; using a second portion of the hashed BSSID as a third identifier; calculating a cyclic redundancy check, CRC, over a set of calculation fields that includes a field with the third identifier to obtain a CRC value; generating the WUR frame for transmission with an address identifier field that includes either the first identifier or a second identifier, wherein the second identifier is based at least in part on the first identifier; and transmitting the WUR frame to the one or more receiving wireless devices.
A process for the preparation of the non-solvated crystalline form of 6,6'-[[3,3',5,5'-tetrakis(1,1-dimethylethyl)-[1,1'-biphenyl]-2,2'-diyl]bis(oxy)]bis-dibenzo [d,f] -dioxaphosphepine (compound I), which in an X-ray powder diffractogram at 25°C with Cu-Kα radiation displays at least 5 of the following reflections, stated as 2θ values: 5.39 ± 0.20°, 7.04 ± 0.20°, 8.44 ± 0.20°, 8.65 ± 0.20°, 9.08 ± 0.20°, 9.66 ± 0.20°, 10.66 ± 0.20°, 12.60 ± 0.20°, 16.25 ± 0.20° and 17.36 ± 0.20°, wherein 6,6'-[[3,3',5,5'-tetrakis(1,1-dimethylethyl)-[1,1'-biphenyl]-2,2'-diyl]bis(oxy)]bis-dibenzo [d,f] -dioxaphosphepine is allowed to crystallize at a temperature of above 65°C or wherein 6,6'-[[3,3',5,5'-tetrakis(1,1 - dimethylethyl)-[1,1'-biphenyl]-2,2'-diyl]bis(oxy)]bis-dibenzo [d,f] -dioxaphosphepine is suspended in a solvent that comprises or consists of toluene and the suspended material is agitated in the suspension at a temperature above the boiling point of toluene at ambient pressure.