mhurhangee/patent-ind-claim-en huggingface dataset:
A picture encoding apparatus comprising a processing circuitry configured to: hierarchically partition a block of picture data into sub-blocks; characterized in that the processing circuitry is further configured to determine that a sub-block being encoded belongs to an unequally-sized partitioned block; prepare a list of neighboring blocks for a sub-block of the unequally-sized partitioned block based on a size of the sub-block of the unequally-sized partitioned block and a partitioning type of at least one neighboring block of the unequally-sized partitioned block; and derive a context model that is used to encode split information of the sub-block of the unequally-sized partitioned block into a bit stream based on the prepared list of neighboring blocks, wherein the sub-block of the unequally-sized partitioned block is one of a smaller sub-block of the unequally-sized partitioned block and a larger sub-block of the unequally-sized partitioned block; and wherein if the sub-block being encoded is a larger sub-block of the unequally-sized partitioned block, the processing circuitry is further configured to: include a neighboring block of the unequally-sized partitioned block in the list of neighboring blocks of the larger sub-block; and omit a smaller sub-block of the unequally-sized partitioned block from the list of neighboring blocks of the larger sub-block. hierarchically partition a block of picture data into sub-blocks; characterized in that the processing circuitry is further configured to determine that a sub-block being encoded belongs to an unequally-sized partitioned block; prepare a list of neighboring blocks for a sub-block of the unequally-sized partitioned block based on a size of the sub-block of the unequally-sized partitioned block and a partitioning type of at least one neighboring block of the unequally-sized partitioned block; and derive a context model that is used to encode split information of the sub-block of the unequally-sized partitioned block into a bit stream based on the prepared list of neighboring blocks, wherein the sub-block of the unequally-sized partitioned block is one of a smaller sub-block of the unequally-sized partitioned block and a larger sub-block of the unequally-sized partitioned block; and wherein if the sub-block being encoded is a larger sub-block of the unequally-sized partitioned block, the processing circuitry is further configured to: include a neighboring block of the unequally-sized partitioned block in the list of neighboring blocks of the larger sub-block; and omit a smaller sub-block of the unequally-sized partitioned block from the list of neighboring blocks of the larger sub-block. include a neighboring block of the unequally-sized partitioned block in the list of neighboring blocks of the larger sub-block; and omit a smaller sub-block of the unequally-sized partitioned block from the list of neighboring blocks of the larger sub-block.
Method for measuring multiple analytes from a single sample comprising the steps of a) providing a system comprising i. a common inlet configured to receive a fluid stream ii. a single microfluidic channel without bifurcation or branching iii. a measurement cell iv. a channel outlet wherein the microfluidic channel comprises at least two immobilization areas and at least one spacer area that are arranged alternating, wherein at the site of the immobilization areas biorecognition elements are immobilized that possess a binding affinity for an analyte b) introducing the sample comprising at least two analytes into the microfluidic channel via the common inlet , whereby first analytes immobilize in a first immobilization area and second analytes immobilize in a second immobilization area c) introducing a fluid comprising a reporter catalyst into the microfluidic channel via the common inlet , whereby the reporter catalyst immobilizes in the respective immobilization areas depending on the presence of analytes to form an analyte-dependent catalyst complex d) introducing a fluid containing a substrate for the reporter catalyst e) stopping the flow of the fluid stream for a stop interval such that in each immobilization area a catalytic reaction may take place to produce target molecules f) initiating a flow of the fluid stream such that at the measurement cell the amount of target molecules produced in each immobilization area can be detected as separate peak signals. a) providing a system comprising i. a common inlet configured to receive a fluid stream ii. a single microfluidic channel without bifurcation or branching iii. a measurement cell iv. a channel outlet wherein the microfluidic channel comprises at least two immobilization areas and at least one spacer area that are arranged alternating, wherein at the site of the immobilization areas biorecognition elements are immobilized that possess a binding affinity for an analyte i. a common inlet configured to receive a fluid stream ii. a single microfluidic channel without bifurcation or branching iii. a measurement cell iv. a channel outlet b) introducing the sample comprising at least two analytes into the microfluidic channel via the common inlet , whereby first analytes immobilize in a first immobilization area and second analytes immobilize in a second immobilization area c) introducing a fluid comprising a reporter catalyst into the microfluidic channel via the common inlet , whereby the reporter catalyst immobilizes in the respective immobilization areas depending on the presence of analytes to form an analyte-dependent catalyst complex d) introducing a fluid containing a substrate for the reporter catalyst e) stopping the flow of the fluid stream for a stop interval such that in each immobilization area a catalytic reaction may take place to produce target molecules f) initiating a flow of the fluid stream such that at the measurement cell the amount of target molecules produced in each immobilization area can be detected as separate peak signals.
A medical analysis device, intended to capture cancer cells, the medical analysis device comprising multiple wells, wherein each well has a hydrophilic polymer layer formed at least partly on an inner surface thereof, and the hydrophilic polymer layer is formed of at least one selected from the group consisting of (a) poly(meth)acryloylmorpholine, (b) a polymer represented by the following formula (I): wherein R 1 represents a hydrogen atom or a methyl group, R 2 represents an alkyl group, m represents 1 to 5, and n represents the number of repetitions of 15 to 1,000, and (c) a copolymer of at least one hydrophilic monomer selected from the group consisting of (meth)acryloylmorpholine and a compound represented by the following formula (I-1): wherein R 1 represents a hydrogen atom or a methyl group, R 2 represents an alkyl group, and m represents 1 to 5, with a second monomer, wherein the thickness of the hydrophilic polymer layer is 20 nm to 180 nm. (a) poly(meth)acryloylmorpholine, (b) a polymer represented by the following formula (I): wherein R 1 represents a hydrogen atom or a methyl group, R 2 represents an alkyl group, m represents 1 to 5, and n represents the number of repetitions of 15 to 1,000, and (c) a copolymer of at least one hydrophilic monomer selected from the group consisting of (meth)acryloylmorpholine and a compound represented by the following formula (I-1): wherein R 1 represents a hydrogen atom or a methyl group, R 2 represents an alkyl group, and m represents 1 to 5, with a second monomer, wherein the thickness of the hydrophilic polymer layer is 20 nm to 180 nm. wherein R 1 represents a hydrogen atom or a methyl group, R 2 represents an alkyl group, and m represents 1 to 5, with a second monomer, wherein the thickness of the hydrophilic polymer layer is 20 nm to 180 nm.
A laser sensor, comprising: a receiver array configured to convert received optical signals into electrical signals, wherein a noise floor of the electrical signals is positively correlated with temperature if environmental temperature is within a first preset temperature range, while if the environmental temperature is within a second preset temperature range, the noise floor of electrical signals is negatively correlated with temperature; the noise floor is defined as sensing signals without reflective surfaces in an environment; a compensation module coupled with the receiver array and configured to receive the electrical signals, amplify the electrical signals with a first amplification factor when the environmental temperature is within the first preset temperature range, and amplify with a second amplification factor when the environmental temperature is within the second preset temperature range, wherein the first amplification factor is negatively correlated with the temperature, while the second amplification factor is positively correlated with the temperature; and a processor coupled with the compensation module and configured to identify sensing signals based on the electrical signals amplified by the compensation module and the noise floor. a receiver array configured to convert received optical signals into electrical signals, wherein a noise floor of the electrical signals is positively correlated with temperature if environmental temperature is within a first preset temperature range, while if the environmental temperature is within a second preset temperature range, the noise floor of electrical signals is negatively correlated with temperature; the noise floor is defined as sensing signals without reflective surfaces in an environment; a compensation module coupled with the receiver array and configured to receive the electrical signals, amplify the electrical signals with a first amplification factor when the environmental temperature is within the first preset temperature range, and amplify with a second amplification factor when the environmental temperature is within the second preset temperature range, wherein the first amplification factor is negatively correlated with the temperature, while the second amplification factor is positively correlated with the temperature; and a processor coupled with the compensation module and configured to identify sensing signals based on the electrical signals amplified by the compensation module and the noise floor.
A method of communication by a terminal in a wireless communication system supporting a plurality of protocol data unit, PDU, sessions, the method comprising: transmitting , to a network entity in charge of mobility management, a first non-access stratum, NAS, message including first information indicating whether each of the plurality of PDU sessions is inactive or not; and receiving , from the network entity , a second NAS message including second information indicating whether each of the plurality of PDU sessions is inactive or not, wherein the plurality of PDU sessions are identified by a plurality of PDU session identities, PSIs, respectively, wherein the first information is represented by a plurality of bits, the plurality of bits being mapped respectively to the plurality of PSIs and each of the plurality of bits being coded as a value of 0 or 1 to indicate whether a corresponding PDU session is inactive or not, wherein the second information is represented by a plurality of bits, the plurality of bits being mapped respectively to the plurality of PSIs and each of the plurality of bits being coded as value of 0 or 1 to indicate whether a corresponding PDU session is inactive or not, and wherein each of the plurality of PSIs is represented by using 8 bits. transmitting , to a network entity in charge of mobility management, a first non-access stratum, NAS, message including first information indicating whether each of the plurality of PDU sessions is inactive or not; and receiving , from the network entity , a second NAS message including second information indicating whether each of the plurality of PDU sessions is inactive or not, wherein the plurality of PDU sessions are identified by a plurality of PDU session identities, PSIs, respectively, wherein the first information is represented by a plurality of bits, the plurality of bits being mapped respectively to the plurality of PSIs and each of the plurality of bits being coded as a value of 0 or 1 to indicate whether a corresponding PDU session is inactive or not, wherein the second information is represented by a plurality of bits, the plurality of bits being mapped respectively to the plurality of PSIs and each of the plurality of bits being coded as value of 0 or 1 to indicate whether a corresponding PDU session is inactive or not, and wherein each of the plurality of PSIs is represented by using 8 bits.
A method performed by a user equipment, UE, for determining a start position of a system information, SI, window used for acquiring a SI message in a wireless communication network , wherein SI messages are transmitted in periodically occurring SI windows, characterized in that one or more SI messages are scheduled using a first or a second list of scheduling information, the method comprising: - if an SI message is scheduled using the first list of scheduling information, determining the start position of the SI window based on the order of entry of said SI message in a list of SI messages configured by the first list of scheduling information; else - if an SI message is scheduled using the second list of scheduling information, determining the start position of the SI window by taking an input parameter into account, wherein the input parameter is a value of a field in a message received from a radio network node, said value being configured for said SI message by the radio network node, whereby the UE determines the start position of the SI window based on an integer value x, which integer value x is calculated by taking the received input parameter minus 1 and multiplying it with a value representing the window length of the SI window, wherein the SI window starts at a slot #a, where a = x mod N, in the radio frame for which SFN mod T = FLOOR(x/N), where T is the periodicity of the concerned SI message and N is the number of slots in a radio frame. - if an SI message is scheduled using the first list of scheduling information, determining the start position of the SI window based on the order of entry of said SI message in a list of SI messages configured by the first list of scheduling information; else - if an SI message is scheduled using the second list of scheduling information, determining the start position of the SI window by taking an input parameter into account, wherein the input parameter is a value of a field in a message received from a radio network node, said value being configured for said SI message by the radio network node, whereby the UE determines the start position of the SI window based on an integer value x, which integer value x is calculated by taking the received input parameter minus 1 and multiplying it with a value representing the window length of the SI window, wherein the SI window starts at a slot #a, where a = x mod N, in the radio frame for which SFN mod T = FLOOR(x/N), where T is the periodicity of the concerned SI message and N is the number of slots in a radio frame.
A container comprising: a container portion with an interior space in which articles to be transported can be stored; a lid pivotably connected to the container portion , wherein movement of the lid relative to the container portion between an opened and closed position permits and prevents access to the interior space ; a latch arrangement constructed to secure the lid in covering relation with respect to the container portion ; a hinge structure constructed to enable the lid to pivot relative to the container portion ; characterized in that the container further comprises a support being constructed and arranged to engage a surface on which a bottom surface rests when the lid is in the opened position, so as to support the lid in the open position, the support being constructed and arranged to be positioned proximate to the container portion when the lid is in the closed position and movable to an extended position when the lid is in the open position, wherein manual force applied to the lid to generates pivotal movement of the lid from the closed position to the opened position is translated to the support during such pivotal movement of the lid so as to force the support from the position proximate to the container portion to the extended position. a container portion with an interior space in which articles to be transported can be stored; a lid pivotably connected to the container portion , wherein movement of the lid relative to the container portion between an opened and closed position permits and prevents access to the interior space ; a latch arrangement constructed to secure the lid in covering relation with respect to the container portion ; a hinge structure constructed to enable the lid to pivot relative to the container portion ; characterized in that the container further comprises a support being constructed and arranged to engage a surface on which a bottom surface rests when the lid is in the opened position, so as to support the lid in the open position, the support being constructed and arranged to be positioned proximate to the container portion when the lid is in the closed position and movable to an extended position when the lid is in the open position, wherein manual force applied to the lid to generates pivotal movement of the lid from the closed position to the opened position is translated to the support during such pivotal movement of the lid so as to force the support from the position proximate to the container portion to the extended position.
A method for automatically replacing a first reel with a second reel (10") containing, respectively, a first web and a second web (12"), each having an inner surface (12'i, 12"i) and an outer surface (12's, 12"s) opposite to each other, wherein said first web feeds a production machine (M) along a feed direction (A) with said inner surface (12'i) of said first web facing towards a predefined reference direction, and wherein said second web (12") is intended to replace said first web , so that along said feed direction (A) said inner surface (12"i) of said second web (12") faces towards said predefined reference direction characterized in that said method involves: - a positioning step of a head section (12"h) of said second web (12") with respect to a tail section (12't) of said first web , wherein said inner surfaces (12'i, 12"i), or said outer surfaces (12's, 12"s), are partly facing each other, - a joining step of a portion of said head section (12"h) with a portion of said tail section (12't) to form a transverse junction band , and - a feeding step of said second web (12") towards said production machine (M) along said feed direction (A) with said inner surface (12"i) facing towards said predefined reference direction. - a positioning step of a head section (12"h) of said second web (12") with respect to a tail section (12't) of said first web , wherein said inner surfaces (12'i, 12"i), or said outer surfaces (12's, 12"s), are partly facing each other, - a joining step of a portion of said head section (12"h) with a portion of said tail section (12't) to form a transverse junction band , and - a feeding step of said second web (12") towards said production machine (M) along said feed direction (A) with said inner surface (12"i) facing towards said predefined reference direction.
Electric fluid heating device, in particular for a motor vehicle, comprising: - a housing having a first chamber for circulation of the fluid, - at least one electric heating element for heating the fluid in said first chamber , - an electronic circuit board for controlling a current circulating in said one or more electric heating element(s) , - at least one thermal sensor, characterized in that said one or more thermal sensors are positioned at the electronic circuit board and thermally connected to said first chamber via a heat sink . - a housing having a first chamber for circulation of the fluid, - at least one electric heating element for heating the fluid in said first chamber , - an electronic circuit board for controlling a current circulating in said one or more electric heating element(s) , - at least one thermal sensor,
A power semiconductor module , comprising: a plurality of power semiconductor chips , each of which provides at least one power semiconductor switch; a housing for accommodating the power semiconductor chips ; at least one first module electrode on a first side of the housing electrically connected to a first chip electrode of the power semiconductor chips ; at least one second module electrode on a second side of the housing electrically connected to a second chip electrode of the power semiconductor chips , which second side of the housing is opposite to the first side ; a surge arrester arrangement with a surge arrester accommodated in the housing , such that a first electrode of the surge arrester arrangement is provided at the first side of the housing and a second electrode of the surge arrester arrangement is provided at the second side of the housing ; a conducting plate attached to the second side of the housing , such that the at least one second module electrode and the second electrode of the surge arrester arrangement are electrically connected with each other; wherein the plurality of power semiconductor chips are arranged in an annular region in the housing and the surge arrester arrangement is arranged within the annular region . a plurality of power semiconductor chips , each of which provides at least one power semiconductor switch; a housing for accommodating the power semiconductor chips ; at least one first module electrode on a first side of the housing electrically connected to a first chip electrode of the power semiconductor chips ; at least one second module electrode on a second side of the housing electrically connected to a second chip electrode of the power semiconductor chips , which second side of the housing is opposite to the first side ; a surge arrester arrangement with a surge arrester accommodated in the housing , such that a first electrode of the surge arrester arrangement is provided at the first side of the housing and a second electrode of the surge arrester arrangement is provided at the second side of the housing ; a conducting plate attached to the second side of the housing , such that the at least one second module electrode and the second electrode of the surge arrester arrangement are electrically connected with each other; wherein the plurality of power semiconductor chips are arranged in an annular region in the housing and the surge arrester arrangement is arranged within the annular region .