mhurhangee/patent-ind-claim-en huggingface dataset:
Rubber composition based on at least: - a diene elastomer, - 50 to 160 phr (parts by weight per hundred parts by weight of elastomer) of inorganic reinforcing filler, - a vulcanization system, - a plasticizing system comprising at least one hydrocarbon resin with a glass transition temperature (Tg) of between -40°C and 20°C, - as coupling agent, a hydroxysilane polysulfide corresponding to the general formula (I): (HO) a R (3-a) Si-R'-S x- R'-SiR (3-b) (OH) b (I) in which the R radicals, which are identical or different, are hydrocarbon groups preferably comprising from 1 to 15 carbon atoms; the R' radicals, which are identical or different, are divalent connecting groups preferably comprising from 1 to 18 carbon atoms; a and b, which are identical or different, are equal to 1 or 2; x is a number greater than or equal to 2, - a primary amine of formula (IV): R-NH 2 (IV) in which R represents a linear or branched hydrocarbon group comprising from 8 to 24 carbon atoms, said composition being devoid of or comprising less than 0.5 phr of guanidine derivative. - a diene elastomer, - 50 to 160 phr (parts by weight per hundred parts by weight of elastomer) of inorganic reinforcing filler, - a vulcanization system, - a plasticizing system comprising at least one hydrocarbon resin with a glass transition temperature (Tg) of between -40°C and 20°C, - as coupling agent, a hydroxysilane polysulfide corresponding to the general formula (I): (HO) a R (3-a) Si-R'-S x- R'-SiR (3-b) (OH) b (I) in which the R radicals, which are identical or different, are hydrocarbon groups preferably comprising from 1 to 15 carbon atoms; the R' radicals, which are identical or different, are divalent connecting groups preferably comprising from 1 to 18 carbon atoms; a and b, which are identical or different, are equal to 1 or 2; x is a number greater than or equal to 2, - a primary amine of formula (IV): R-NH 2 (IV) in which R represents a linear or branched hydrocarbon group comprising from 8 to 24 carbon atoms, said composition being devoid of or comprising less than 0.5 phr of guanidine derivative.
A monoclonal antibody comprising (a) a Light Chain comprising the amino acid sequence of SEQ ID NO:16; and (b) a Heavy Chain comprising the amino acid sequence of SEQ ID NO:11, or (a) a Light Chain comprising the amino acid sequence of SEQ ID NO:16; and (b) a Heavy Chain comprising the amino acid sequence of SEQ ID NO:24. (a) a Light Chain comprising the amino acid sequence of SEQ ID NO:16; and (b) a Heavy Chain comprising the amino acid sequence of SEQ ID NO:11, or (a) a Light Chain comprising the amino acid sequence of SEQ ID NO:16; and (b) a Heavy Chain comprising the amino acid sequence of SEQ ID NO:24.
A secure picture generating device for securing a picture , the secure generating device comprising: a processor ; and a memory that stores processor-executable instructions where the processor interfaces with the memory and the processor-executable instructions, when executed by the processor, are configured for: receiving the picture, segmenting the picture into a plurality of picture frames (120 1 , 120 2 , 120 3 ... 120 x ), creating a number of picture fragment sets 122 1 , 122 2 , 122 3 ... 122 x ), wherein each picture fragment set comprises a different set of picture frames selected from the plurality of picture frames, and the selected picture frames, when taken together collectively represent the picture, wherein upon receipt of the number of picture fragment sets at a secure picture displaying device, the selected picture frames of each picture fragment set are displayed one after another, and sending the number of picture fragment sets to a secure picture displaying device. a processor ; and a memory that stores processor-executable instructions where the processor interfaces with the memory and the processor-executable instructions, when executed by the processor, are configured for: receiving the picture, segmenting the picture into a plurality of picture frames (120 1 , 120 2 , 120 3 ... 120 x ), creating a number of picture fragment sets 122 1 , 122 2 , 122 3 ... 122 x ), wherein each picture fragment set comprises a different set of picture frames selected from the plurality of picture frames, and the selected picture frames, when taken together collectively represent the picture, wherein upon receipt of the number of picture fragment sets at a secure picture displaying device, the selected picture frames of each picture fragment set are displayed one after another, and sending the number of picture fragment sets to a secure picture displaying device. receiving the picture, segmenting the picture into a plurality of picture frames (120 1 , 120 2 , 120 3 ... 120 x ), creating a number of picture fragment sets 122 1 , 122 2 , 122 3 ... 122 x ), wherein each picture fragment set comprises a different set of picture frames selected from the plurality of picture frames, and the selected picture frames, when taken together collectively represent the picture, wherein upon receipt of the number of picture fragment sets at a secure picture displaying device, the selected picture frames of each picture fragment set are displayed one after another, and sending the number of picture fragment sets to a secure picture displaying device.
An imaging apparatus capable of communicating with a lens apparatus detachably mounted to the imaging apparatus, the imaging apparatus comprising: a mount unit where a plurality of electric contacts (1001 - 1012) are arrayed, wherein the plurality of electric contacts (1001 - 1012) include: a first electric contact group configured to communicate with a mounted lens apparatus by communication according to a first voltage, and communication according to a second voltage that differs from the first voltage, and a second electric contact group configured to allow communication with the mounted lens apparatus by the first voltage, wherein communication using the second electric contact group is not used in a case where communication using the first electric contact group is performed by the second voltage, and wherein the second electric contact group is disposed adjacent to the first electric contact group . a mount unit where a plurality of electric contacts (1001 - 1012) are arrayed, wherein the plurality of electric contacts (1001 - 1012) include: a first electric contact group configured to communicate with a mounted lens apparatus by communication according to a first voltage, and communication according to a second voltage that differs from the first voltage, and a second electric contact group configured to allow communication with the mounted lens apparatus by the first voltage, a first electric contact group configured to communicate with a mounted lens apparatus by communication according to a first voltage, and communication according to a second voltage that differs from the first voltage, and a second electric contact group configured to allow communication with the mounted lens apparatus by the first voltage, wherein communication using the second electric contact group is not used in a case where communication using the first electric contact group is performed by the second voltage, and wherein the second electric contact group is disposed adjacent to the first electric contact group .
A set of instructions stored on at least one computer readable medium for running on a computer system, comprising: instructions for identifying line segments of a roof displayed within a first of one or more geo-referenced images on a display of the computer system, wherein the line segments have end points, by a user selecting end points of the line segments within the first image; instructions for grouping the end points of the line segments by elevation using input by the user selecting end points in the displayed first image at the same elevation; instructions for displaying a second of the one or more geo-referenced images of the roof on the display and drawing one or more elevation grouped rooflines on the second image utilizing positional information associated with the first and second image, and for receiving user input to align at least one of the elevation grouped rooflines onto the actual rooflines of the roof displayed within the second image; instructions for calculating an elevation for each of the end points of the line segments of an aligned elevation grouped roof line utilizing the first image and the second image; instructions for determining three-dimensional information of the line segments including position, orientation and length of the line segments from the elevation of the end points of the line segments; and instructions for classifying automatically at least one of the line segments as one of a plurality of predefined roof elements utilizing at least one of the relative position and orientation of the line segments. instructions for identifying line segments of a roof displayed within a first of one or more geo-referenced images on a display of the computer system, wherein the line segments have end points, by a user selecting end points of the line segments within the first image; instructions for grouping the end points of the line segments by elevation using input by the user selecting end points in the displayed first image at the same elevation; instructions for displaying a second of the one or more geo-referenced images of the roof on the display and drawing one or more elevation grouped rooflines on the second image utilizing positional information associated with the first and second image, and for receiving user input to align at least one of the elevation grouped rooflines onto the actual rooflines of the roof displayed within the second image; instructions for calculating an elevation for each of the end points of the line segments of an aligned elevation grouped roof line utilizing the first image and the second image; instructions for determining three-dimensional information of the line segments including position, orientation and length of the line segments from the elevation of the end points of the line segments; and instructions for classifying automatically at least one of the line segments as one of a plurality of predefined roof elements utilizing at least one of the relative position and orientation of the line segments.
A method performed by a station, STA, in a wireless local area network, WLAN, system, the method comprising: receiving (S2510) a physical protocol data unit, PPDU, comprising a legacy-signal, L-SIG, field, a repeated L-SIG, RL-SIG, field, and an indication symbol, wherein the RL-SIG field is contiguous to the L-SIG field, and the indication symbol is contiguous to the RL-SIG field, wherein the indication symbol includes packet indication information having a length of 3 bits; determining a type of the PPDU based on the RL-SIG field, a "modulo 3 operation" with respect to a value of a length field of the L-SIG field, and the packet indication information, wherein the type of the PPDU is determined as an extremely high throughput, EHT, type based on the RL-SIG field being a repeat of the L-SIG field, a result of the "modulo 3 operation" being "0", and the packet indication information, wherein the type of the PPDU is determined as a high efficiency, HE, type based on the RL-SIG field being a repeat of the L-SIG field and the result of the "modulo 3 operation" being "1" or "2"; and decoding (S2520) the PPDU. receiving (S2510) a physical protocol data unit, PPDU, comprising a legacy-signal, L-SIG, field, a repeated L-SIG, RL-SIG, field, and an indication symbol, wherein the RL-SIG field is contiguous to the L-SIG field, and the indication symbol is contiguous to the RL-SIG field, wherein the indication symbol includes packet indication information having a length of 3 bits; determining a type of the PPDU based on the RL-SIG field, a "modulo 3 operation" with respect to a value of a length field of the L-SIG field, and the packet indication information, wherein the type of the PPDU is determined as an extremely high throughput, EHT, type based on the RL-SIG field being a repeat of the L-SIG field, a result of the "modulo 3 operation" being "0", and the packet indication information, wherein the type of the PPDU is determined as a high efficiency, HE, type based on the RL-SIG field being a repeat of the L-SIG field and the result of the "modulo 3 operation" being "1" or "2"; and decoding (S2520) the PPDU.
A housing configured to house an electric machine , the housing being formed as one unitary element made of heat conducting material, wherein the housing is configured to form a first space in which first space a stator and a rotor are to be located, a second space in which second space electronics for operation of the electric machine is to be located and a third space formed in the housing , seen in axial direction of the electric machine between the first space and the second space , the third space having a at least one surface facing the first space and at least one other surface facing the second space, the housing comprising at least one inlet for a liquid to the third space and at least one outlet for the liquid from the third space , wherein the third space forms a cooling arrangement simultaneously cooling both the stator /rotor and the electronics without extending radially outside the electrical machine .
A riding arena floor plate , comprising a plate body made of a plastic and/or rubber material, characterized in that the entire surface of the plate body is covered by a water-resistant and weather-resistant, fluid-tight covering layer , wherein the covering layer comprises at least one preservative and in the covering layer is additionally contained a quartz powder.
An encapsulated phase change material 'PCM' heat sink , comprising: a lower shell ; an upper shell ; an encapsulated phase change material comprising a phase change material encapsulated in a non-phase change material; and an internal matrix comprising a space , wherein the space is configured to receive the encapsulated phase change material , and wherein thermal energy is transferrable between the encapsulated phase change material and at least one of the lower shell and the upper shell ; wherein the internal matrix comprises a plurality of pins integral with one or both of the lower shell and the upper shell . a lower shell ; an upper shell ; an encapsulated phase change material comprising a phase change material encapsulated in a non-phase change material; and an internal matrix comprising a space , wherein the space is configured to receive the encapsulated phase change material , and wherein thermal energy is transferrable between the encapsulated phase change material and at least one of the lower shell and the upper shell ; wherein the internal matrix comprises a plurality of pins integral with one or both of the lower shell and the upper shell .
Image capture method in an active pixel image sensor, applying an integration period common to all of the pixels before a phase of reading out the pixels, row by row, each pixel comprising a memory node (MN) between a photosensitive element (Dp) and a readout node (SN) of the pixel, with a first charge transfer transistor (TR1) placed between the photosensitive element and the memory node and a second charge transfer transistor (TR2) placed between the memory node and the readout node, characterized in that , in each new integration period, the method comprises the following control steps, across all of the pixels simultaneously: - applying, to the gate of all of the first transfer transistors: - at least one first voltage pulse (P1 a ) at an intermediate voltage (t 1 ) between the start (t 0 ) and the end of the integration period, controlling a transfer of charge from the photodiode to the memory node; and - a final voltage pulse (Pf) at the end of the integration period, controlling a final transfer of charge from the photodiode to the memory node, the end of the pulse marking the end of the current integration period; - applying, to the gate (TR2-g) of all of the second transfer transistors, a second voltage pulse (P2 a ) after each first voltage pulse (P1 a ) and before the final voltage pulse (Pf), and the second voltage pulse (P2 a ) setting a potential barrier height (h a ) under the gate of said second transistors in relation to the potential (V MN ) of the memory node, allowing the charge in said memory node beyond a maximum amount of charge (Q0) that can be held in said memory node to be clipped. - applying, to the gate of all of the first transfer transistors: - at least one first voltage pulse (P1 a ) at an intermediate voltage (t 1 ) between the start (t 0 ) and the end of the integration period, controlling a transfer of charge from the photodiode to the memory node; and - a final voltage pulse (Pf) at the end of the integration period, controlling a final transfer of charge from the photodiode to the memory node, the end of the pulse marking the end of the current integration period; - applying, to the gate (TR2-g) of all of the second transfer transistors, a second voltage pulse (P2 a ) after each first voltage pulse (P1 a ) and before the final voltage pulse (Pf), and the second voltage pulse (P2 a ) setting a potential barrier height (h a ) under the gate of said second transistors in relation to the potential (V MN ) of the memory node, allowing the charge in said memory node beyond a maximum amount of charge (Q0) that can be held in said memory node to be clipped.
A system, comprising: a cylindrical battery cell comprising a side wall , a first axial end wall , and a second axial end wall ; a graphene layer positioned on an outer surface of the side wall of the battery cell ; an electrical control interface configured to supply power to the graphene layer to modify a thermal conductivity of the graphene layer, an electrical resistivity of the graphene layer, or both; a wire (230; 330) configured to transmit the power from the electrical control interface to the graphene layer ; a cell support defining an opening in which the battery cell is positioned; a thermal pad positioned below the battery cell , the graphene layer and/or the cell support structure ; and an enclosure bottom (250; 350) serving as a heat sink and positioned below the battery cell . a cylindrical battery cell comprising a side wall , a first axial end wall , and a second axial end wall ; a graphene layer positioned on an outer surface of the side wall of the battery cell ; an electrical control interface configured to supply power to the graphene layer to modify a thermal conductivity of the graphene layer, an electrical resistivity of the graphene layer, or both; a wire (230; 330) configured to transmit the power from the electrical control interface to the graphene layer ; a cell support defining an opening in which the battery cell is positioned; a thermal pad positioned below the battery cell , the graphene layer and/or the cell support structure ; and an enclosure bottom (250; 350) serving as a heat sink and positioned below the battery cell .
Medicament container holder for securing a medicament container , which medicament container comprises a generally tubular body arranged with a proximally directed neck portion and a flange portion , which flange portion is arranged with a pierceable septum ;said medicament container holder comprising mechanical holding elements configured to interact with said flange portion of the medicament container for preventing movement of said medicament container in a distal direction, characterized in that said medicament container holder , further comprising mechanical fixation elements (52, 54; 60, 64) configured to interact with said flange portion of the medicament container for urging said flange portion in the distal direction against the holding elements ; said medicament container holder comprising attachment elements for attaching a medicament delivery member to the medicament container holder having a generally tubular elongated body , which is arranged to accommodate the medicament container ; wherein said mechanical fixation elements (52, 54; 60, 64) of the medicament container holder are configured to engage with the medicament delivery member when the medicament delivery member is attached by said attachment elements to the medicament container holder , such as to exert a force in the distal direction on said flange portion of the medicament container . said medicament container holder , further comprising mechanical fixation elements (52, 54; 60, 64) configured to interact with said flange portion of the medicament container for urging said flange portion in the distal direction against the holding elements ; said medicament container holder comprising attachment elements for attaching a medicament delivery member to the medicament container holder having a generally tubular elongated body , which is arranged to accommodate the medicament container ; wherein said mechanical fixation elements (52, 54; 60, 64) of the medicament container holder are configured to engage with the medicament delivery member when the medicament delivery member is attached by said attachment elements to the medicament container holder , such as to exert a force in the distal direction on said flange portion of the medicament container .
Method for determining the position of a robot , in particular of an autonomous robot , comprising at least - a method step in which expected position data p p t regarding an expected position of the robot are provided, - a method step in which actual position data p u t regarding an actual position of the robot are provided, and a method step in which position data that are free from outliers and that are used to determine the position of the robot are determined using the expected position data p p t and the actual position data p u t , wherein mutually consistent expected position data p p t and actual position data p u t are determined by creating a similarity matrix, characterized in that the similarity matrix is created in the form of an ( n × n ) matrix based on in each case n expected position data p p t and n actual position data p u t that are provided in each case at n times [t s , t s+1 , ..., t s+n-1 ] , preferably n equidistant times. - a method step in which expected position data p p t regarding an expected position of the robot are provided, - a method step in which actual position data p u t regarding an actual position of the robot are provided,