mhurhangee/patent-ind-claim-en huggingface dataset:
Method for controlling phase currents (i U_WR1 , i V_WR1 , i W_WR1 ) of a three-phase inverter (WR1), wherein - the phase currents (i U_WR1 , i V_WR1 , i W_WR1 ) of the inverter (WR1) are controlled using direct hysteresis current control by means of switching signals (Y U_WR1 , Y V_WR1 , Y W_WR1 ) which each have the value range {-1,+1}, characterised in that - a selected phase of the inverter (WR1) is additionally switched as a function of a zero sequence current (i 0_WR1 ) of the inverter (WR1), - wherein a first hysteresis window having a negative interval limit (-i Hyst ) and a positive interval limit (+i Hyst ) is predefined for the zero sequence current (i 0_WR1 ), - an additional switching signal (Z mod ) is set to the value +1 if the zero sequence current (i 0_WR1 ) is greater than the positive interval limit (+i Hyst ), to the value -1 if the zero sequence current (i 0_WR1 ) is smaller than the negative interval limit (-i Hyst ), and to the value 0 if the zero sequence current (i 0_WR1 ) exceeds or falls below the value zero in each case, - the switching signal (Y U_WR1 , Y V_WR1 , Y W_WR1 ) for the selected phase is set to the value -1 if the additional switching signal (Z mod ) assumes the value +1, to the value +1 if the additional switching signal (Z mod ) assumes the value -1, and otherwise coincides with a standard switching signal (Z U_WR1 , Z V_WR1 , Z W_WR1 ) of the hysteresis current control for the selected phase and - the switching signals (Y U_WR1 , Y V_WR1 , Y W_WR1 ) for the other two phases coincide with the standard switching signal (Z U_WR1 , Z V_WR1 , Z W_WR1 ) for the respective phase in each case - the phase currents (i U_WR1 , i V_WR1 , i W_WR1 ) of the inverter (WR1) are controlled using direct hysteresis current control by means of switching signals (Y U_WR1 , Y V_WR1 , Y W_WR1 ) which each have the value range {-1,+1}, - a selected phase of the inverter (WR1) is additionally switched as a function of a zero sequence current (i 0_WR1 ) of the inverter (WR1), - wherein a first hysteresis window having a negative interval limit (-i Hyst ) and a positive interval limit (+i Hyst ) is predefined for the zero sequence current (i 0_WR1 ), - an additional switching signal (Z mod ) is set to the value +1 if the zero sequence current (i 0_WR1 ) is greater than the positive interval limit (+i Hyst ), to the value -1 if the zero sequence current (i 0_WR1 ) is smaller than the negative interval limit (-i Hyst ), and to the value 0 if the zero sequence current (i 0_WR1 ) exceeds or falls below the value zero in each case, - the switching signal (Y U_WR1 , Y V_WR1 , Y W_WR1 ) for the selected phase is set to the value -1 if the additional switching signal (Z mod ) assumes the value +1, to the value +1 if the additional switching signal (Z mod ) assumes the value -1, and otherwise coincides with a standard switching signal (Z U_WR1 , Z V_WR1 , Z W_WR1 ) of the hysteresis current control for the selected phase and - the switching signals (Y U_WR1 , Y V_WR1 , Y W_WR1 ) for the other two phases coincide with the standard switching signal (Z U_WR1 , Z V_WR1 , Z W_WR1 ) for the respective phase in each case
1-Deoxynojirimycin (1-DNJ), n-butyl deoxynojirimycin (NB-DNJ), or a pharmaceutically acceptable salt thereof, and recombinant human acid α-glucosidase enzyme replacement therapy for use in a method for the treatment of Pompe disease in a human subject; wherein the recombinant human acid α-glucosidase enzyme replacement therapy is administered by intravenous infusion at a dose of 20 mg/kg, and wherein the 1-DNJ, the NB-DNJ, or the pharmaceutically acceptable salt thereof, is administered in an amount of 250 mg or 600 mg and is administered immediately before or during a four hour period prior to administration of the recombinant human acid α-glucosidase enzyme replacement therapy.
A system comprising: a multifunctional peripheral device comprising: a processor ; and a display device ; in which the multifunctional peripheral device receives an electronic document; and characterized in that : the processor detects signature lines in the electronic document; and the display device displays the detected signature lines one at a time, wherein displaying the signature lines comprises creating a zoomed in image of each signature line where the zoom factor displays the width of the signature line filling the width of the display device; and wherein the display device is further to receive an input from a user to add a signature to each displayed signature line. a multifunctional peripheral device comprising: a processor ; and a display device ; a processor ; and a display device ; in which the multifunctional peripheral device receives an electronic document; and characterized in that : the processor detects signature lines in the electronic document; and the display device displays the detected signature lines one at a time, wherein displaying the signature lines comprises creating a zoomed in image of each signature line where the zoom factor displays the width of the signature line filling the width of the display device; and wherein the display device is further to receive an input from a user to add a signature to each displayed signature line. the processor detects signature lines in the electronic document; and the display device displays the detected signature lines one at a time, wherein displaying the signature lines comprises creating a zoomed in image of each signature line where the zoom factor displays the width of the signature line filling the width of the display device; and wherein the display device is further to receive an input from a user to add a signature to each displayed signature line.
An apparatus for providing window-washing water for a motor vehicle , comprising a) a washing-water container for storage and provision of window-washing water ; and b) a pressure-regulating device which is configured for charging the washing-water container with compressed air in a regulable manner, wherein the pressure-regulating device is configured for regulating, preferably independently of a fill level of window-washing water in the washing-water container , an air pressure within the washing-water container to a target airpressure level p target , wherein a volumetric flow rate of window-washing water which can be withdrawn from the washing-water container can be set via the regulable charging of the washing-water container with compressed air , characterized by a sensor device , preferably a pressure sensor, which generates a signal which depends on the air pressure within the washing-water container , wherein the regulation of the pressure-regulating device is realized on the basis of said signal. a) a washing-water container for storage and provision of window-washing water ; and b) a pressure-regulating device which is configured for charging the washing-water container with compressed air in a regulable manner, wherein the pressure-regulating device is configured for regulating, preferably independently of a fill level of window-washing water in the washing-water container , an air pressure within the washing-water container to a target airpressure level p target , wherein a volumetric flow rate of window-washing water which can be withdrawn from the washing-water container can be set via the regulable charging of the washing-water container with compressed air , characterized by a sensor device , preferably a pressure sensor, which generates a signal which depends on the air pressure within the washing-water container , wherein the regulation of the pressure-regulating device is realized on the basis of said signal.
A toner, comprising: a colorant; and a binder resin comprising a polyester, wherein the polyester comprises a crystalline polyester, a non-crystalline non-modified polyester and a non-crystalline urea-modified polyester, wherein a spreadability of the toner under a non-pressurized condition is 1.20 to 2.50, wherein a common logarithm of a storage modulus at 100°C (G') of the toner is 4.0 [log Pa] to 5.0 [log Pa], wherein a ratio of a loss modulus at 100°C (G") of the toner to the storage modulus at 100°C (G') of the toner, which is expressed by G"/G' equal to tan δ, is 1.1 to 2.2, wherein a degree of crystallinity of the toner is 10% or more, and wherein said toner further comprises ethyl acetate, wherein a content of the ethyl acetate is 1 μg/g to 30 μg/g, wherein the spreadability, the crystallinity, log G' and tan δ of the toner, and the content of the ethyl acetate are measured according to the description. a colorant; and a binder resin comprising a polyester, wherein the polyester comprises a crystalline polyester, a non-crystalline non-modified polyester and a non-crystalline urea-modified polyester, wherein a spreadability of the toner under a non-pressurized condition is 1.20 to 2.50, wherein a common logarithm of a storage modulus at 100°C (G') of the toner is 4.0 [log Pa] to 5.0 [log Pa], wherein a ratio of a loss modulus at 100°C (G") of the toner to the storage modulus at 100°C (G') of the toner, which is expressed by G"/G' equal to tan δ, is 1.1 to 2.2, wherein a degree of crystallinity of the toner is 10% or more, and wherein said toner further comprises ethyl acetate, wherein a content of the ethyl acetate is 1 μg/g to 30 μg/g, wherein the spreadability, the crystallinity, log G' and tan δ of the toner, and the content of the ethyl acetate are measured according to the description.
Method for producing a toothing , comprising the steps of: a) selecting a root-side starting contour and a tip-side partial contour of a tooth ; b) selecting an adaptation region for at least a part of the root-side starting contour ; c) determining a correction specification for the adaptation region ; d) modifying the root-side starting contour using the correction specification to form a root-side final contour , wherein the correction specification is determined using a correction function which comprises at least one adjustable function parameter , and chip-removing manufacture is carried out based on the tip-side partial contour and the root-side final contour , characterized in that the root-side starting contour is configured as an ellipse segment , and the correction function is configured as a polynomial with adjustable coefficients and configured as a polynomial of order of at least three. a) selecting a root-side starting contour and a tip-side partial contour of a tooth ; b) selecting an adaptation region for at least a part of the root-side starting contour ; c) determining a correction specification for the adaptation region ; d) modifying the root-side starting contour using the correction specification to form a root-side final contour ,
A system comprising a sender entity , a receiver entity , and a network entity interposed between the sender entity and the receiver entity , wherein: the sender entity is an untrusted sender entity; the receiver entity and the network entity share an initialization value and a key; the receiver entity is configured to send a connection request to the sender entity , to encrypt at least one meta-information on the basis the initialization value and the key, and to further send to the sender entity the at least one encrypted meta-information for said connection, wherein the at least one meta-information is a marker which indicates a specific treatment of data packets sent from the sender entity via the network entity to the receiver entity for said connection; the sender entity is configured to insert the at least one encrypted meta-information into at least one of the data packets of said connection and to send the data packets to the network entity; the network entity is configured to decrypt the at least one encrypted meta-information based on the initialization value and the key; and to process forwarding of the data packets on the basis of the decrypted at least one meta-information. the sender entity is an untrusted sender entity; the receiver entity and the network entity share an initialization value and a key; the receiver entity is configured to send a connection request to the sender entity , to encrypt at least one meta-information on the basis the initialization value and the key, and to further send to the sender entity the at least one encrypted meta-information for said connection, wherein the at least one meta-information is a marker which indicates a specific treatment of data packets sent from the sender entity via the network entity to the receiver entity for said connection; the sender entity is configured to insert the at least one encrypted meta-information into at least one of the data packets of said connection and to send the data packets to the network entity; the network entity is configured to decrypt the at least one encrypted meta-information based on the initialization value and the key; and to process forwarding of the data packets on the basis of the decrypted at least one meta-information.
Appliance for treating the hair, having two arms to be closed over the hair to be treated, at least one of the arms carrying a refill of hair treatment product, the appliance having an electronic control circuit with an electronic memory, this circuit being designed to detect the closure of the arms and the fitting of the refill, the appliance having a steam generator for outputting steam onto the hair and at least one heated straightening plate, the appliance being designed to increment a variable ( ILS_nbr ) in the memory during the use of said appliance after the refill has been changed and to pass into a downgraded mode of operation in which the operation of the steam generator and/or of the straightening plate is modified when said variable exceeds a first predefined threshold ( n1 ) .
A method implemented in a high performance computing, HPC, environment including a plurality of compute nodes interconnected via a plurality of switches and links, the method comprising: identifying, by a subnet manager, a set of compute nodes from among the plurality of compute nodes to participate in a collective group to perform collective operations; configuring, by the subnet manager, a spanning tree comprising a plurality of nodes including the set of compute nodes and a set of switches interconnected by a plurality of links, the set of switches including edge switches connected to compute nodes and one or more levels of core switches including a core switch at the root of the spanning tree, wherein the spanning tree is configured such that each node in the spanning tree is enabled to communicate with each of the other nodes via a single respective specified route comprising at least one link segment; configuring, by the subnet manager, each switch in the spanning tree to be aware of specified routes involving that switch by notifying that switch that it is a member of the collective group and sending configuration information that includes a collective forwarding table describing the parent node and child nodes of that switch in the spanning tree; and at each switch, identifying collective operation messages and their destinations and forwarding the collective operations messages along link segments of the specified routes connected to that switch in accordance with the collective forwarding table. identifying, by a subnet manager, a set of compute nodes from among the plurality of compute nodes to participate in a collective group to perform collective operations; configuring, by the subnet manager, a spanning tree comprising a plurality of nodes including the set of compute nodes and a set of switches interconnected by a plurality of links, the set of switches including edge switches connected to compute nodes and one or more levels of core switches including a core switch at the root of the spanning tree, wherein the spanning tree is configured such that each node in the spanning tree is enabled to communicate with each of the other nodes via a single respective specified route comprising at least one link segment; configuring, by the subnet manager, each switch in the spanning tree to be aware of specified routes involving that switch by notifying that switch that it is a member of the collective group and sending configuration information that includes a collective forwarding table describing the parent node and child nodes of that switch in the spanning tree; and at each switch, identifying collective operation messages and their destinations and forwarding the collective operations messages along link segments of the specified routes connected to that switch in accordance with the collective forwarding table.
A method for operating a two-dimensional separable interpolation filter for coding a video, wherein the two-dimensional separable interpolation filter comprises a first and a second one-dimensional interpolation filter and a temporal buffer of a predetermined buffer size, wherein the method comprises: obtaining filter coefficients for the first one-dimensional interpolation filter of the two-dimensional interpolation filter; comparing a sum of positive filter coefficients of the obtained filter coefficients with a threshold; and upon determining that the sum of positive filter coefficients is larger than the threshold, amending one or more of the filter coefficients to obtain amended filter coefficients, wherein the one or more filter coefficients are amended such that a sum of positive filter coefficients of the amended filter coefficients is not larger than the threshold; applying the amended filter coefficients to samples of the video to obtain a value of a fractional sample position of the video; re-scaling the value of the fractional sample position and storing the re-scaled value of the fractional sample position in the temporal buffer. obtaining filter coefficients for the first one-dimensional interpolation filter of the two-dimensional interpolation filter; comparing a sum of positive filter coefficients of the obtained filter coefficients with a threshold; and upon determining that the sum of positive filter coefficients is larger than the threshold, amending one or more of the filter coefficients to obtain amended filter coefficients, wherein the one or more filter coefficients are amended such that a sum of positive filter coefficients of the amended filter coefficients is not larger than the threshold; applying the amended filter coefficients to samples of the video to obtain a value of a fractional sample position of the video; re-scaling the value of the fractional sample position and storing the re-scaled value of the fractional sample position in the temporal buffer. amending one or more of the filter coefficients to obtain amended filter coefficients, wherein the one or more filter coefficients are amended such that a sum of positive filter coefficients of the amended filter coefficients is not larger than the threshold; applying the amended filter coefficients to samples of the video to obtain a value of a fractional sample position of the video; re-scaling the value of the fractional sample position and storing the re-scaled value of the fractional sample position in the temporal buffer.
Processor-based method for block encryption cryptographic processing, that includes the following steps: - decomposing each of two data units into data unit parts, each data unit part including a plurality of elementary data units, - permutating , within each data unit part, elementary data units of that data unit part, and - performing at least one block encryption cryptographic operation on the permutated data units by combining corresponding permutated data unit parts of the two permutated data units, characterized in that , prior to performing said block encryption cryptographic operation, the permutation step includes effecting different permutations to corresponding data unit parts of the two data units to obtain said corresponding permutated data unit parts of the two permutated data units, thereby applying a different permutation (P, P*) to each of the said data units. - decomposing each of two data units into data unit parts, each data unit part including a plurality of elementary data units, - permutating , within each data unit part, elementary data units of that data unit part, and - performing at least one block encryption cryptographic operation on the permutated data units by combining corresponding permutated data unit parts of the two permutated data units,
A surfactant of formula (II): A-(CH 2 ) a -(X) x -B-(X) x -(CH 2 ) a -A (II), wherein, each A is a perfluoropolyether and comprises a repeat unit of the formula: -[CF(CF 3 )CF 2 O] b -, wherein b is a positive integer; a is a positive integer; X is either a covalent bond or a linking group; x is a positive integer; B is a polyalkylene oxide unit; and in compounds comprising more than one A, X, a and x each may be the same or different. each A is a perfluoropolyether and comprises a repeat unit of the formula: -[CF(CF 3 )CF 2 O] b -, wherein b is a positive integer; a is a positive integer; X is either a covalent bond or a linking group; x is a positive integer; B is a polyalkylene oxide unit; and in compounds comprising more than one A, X, a and x each may be the same or different.
A biochemical reaction substrate , comprising: a reaction plate ; an absorber ; a storage container having a reaction plate storing portion for storing the reaction plate , an absorber storing portion for storing the absorber , and a heated portion ; and a cover assembled to the storage container so as to cover at least a part of the reaction plate and the absorber stored in the storage container , wherein the reaction plate includes a reaction area in which a specific binding substance that specifically reacts with a substance to be tested in a specimen is immobilized, and a flow passage that connects the absorber and the reaction area , and wherein the cover includes an injection hole for injecting a specimen or the like into the reaction plate , wherein the flow passage has a slope formed in such a way to climb up from the reaction area . a reaction plate ; an absorber ; a storage container having a reaction plate storing portion for storing the reaction plate , an absorber storing portion for storing the absorber , and a heated portion ; and a cover assembled to the storage container so as to cover at least a part of the reaction plate and the absorber stored in the storage container , wherein the reaction plate includes a reaction area in which a specific binding substance that specifically reacts with a substance to be tested in a specimen is immobilized, and a flow passage that connects the absorber and the reaction area , and wherein the cover includes an injection hole for injecting a specimen or the like into the reaction plate , wherein the flow passage has a slope formed in such a way to climb up from the reaction area .