mhurhangee/patent-ind-claim-en huggingface dataset:
A magnetic random access memory (MRAM) array comprising: a plurality of memory data bit line groups (310 -310(n)) configured to store data; a plurality of reference bit lines (320 -320(n)) configured to provide a reference voltage (Vref 360), wherein the reference voltage (Vref 360) is based on voltages provided by at least one resistive bit cell of each reference bit line; and a plurality of sense amps (350 -350(n)) configured to compare a data bit line voltage from the plurality of memory data bit line groups (310 -310(n)) to the reference voltage, wherein each reference bit line is disposed adjacent to a corresponding memory data bit line group. a plurality of memory data bit line groups (310 -310(n)) configured to store data; a plurality of reference bit lines (320 -320(n)) configured to provide a reference voltage (Vref 360), wherein the reference voltage (Vref 360) is based on voltages provided by at least one resistive bit cell of each reference bit line; and a plurality of sense amps (350 -350(n)) configured to compare a data bit line voltage from the plurality of memory data bit line groups (310 -310(n)) to the reference voltage, wherein each reference bit line is disposed adjacent to a corresponding memory data bit line group.
System for detecting the center of a beacon installed at a point along a route followed by a guided vehicle , the system being configured for being mounted on-board the guided vehicle and capable of locating the center of the beacon when said guided vehicle passes the beacon, the system comprising: - a laser rangefinder using a laser beam for measuring a distance to the beacon when the guided vehicle passes the beacon, the laser rangefinder delivering a signal SL that is a measure of the distance to objects that have reflected its laser beam, wherein the laser rangefinder has its laser beam configured for pointing to a direction that points to the beacon when the guided vehicle on-board of which the system according to the invention is installed passes said beacon ; - a processing unit configured for identifying a beacon profile in the signal SL and for determining the center of the beacon from the identified beacon profile. - a laser rangefinder using a laser beam for measuring a distance to the beacon when the guided vehicle passes the beacon, the laser rangefinder delivering a signal SL that is a measure of the distance to objects that have reflected its laser beam, wherein the laser rangefinder has its laser beam configured for pointing to a direction that points to the beacon when the guided vehicle on-board of which the system according to the invention is installed passes said beacon ; - a processing unit configured for identifying a beacon profile in the signal SL and for determining the center of the beacon from the identified beacon profile.
Method of activating a distance protection relay which monitors a zone, in which in each case a line impedance value is determined in specified time steps, wherein each time step is allocated the change amount of a change vector between the line impedance value determined with respect to the respective time step and the line impedance value determined with respect to the respectively preceding time step, as well as a change amount limit value which is ascertained from the line impedance value determined with respect to the respective time step and from a zone limit impedance value and, if a specified number of change amounts allocated to each time step is below the change amount limit value allocated to the respective time step, the line impedance value of the last time step is output in dependence upon the zone limit impedance value for generating an activation signal .
Polypeptide consisting of sequence SEQ ID NO: 1, or a variant thereof consisting of a sequence at least 85% identical to SEQ ID NO: 1, for use in the prevention and/or treatment of a bone disorder.
A simulation device , adapted for simulating a mechanical system which has a controlled object containing a motor and a motor control device controlling the motor , comprising: a frequency response function computing part , adapted for computing a frequency response function containing characteristics of the controlled object based on a relation between a first command value driving the mechanical system and a measured value of response of the mechanical system driven by the first command value; a simulation system , having a control block structure corresponding to the mechanical system ; a parameter setting part , adapted for setting a control parameter changing characteristics of the simulation system ; a frequency transfer function setting part , adapted for setting a frequency transfer function computed based on the frequency response function or based on the frequency response function and the control parameter into a frequency transfer function used for the simulation; an impulse response computing part , adapted for computing an impulse response by performing inverse Fourier transform on the frequency transfer function for simulation; a second command value generating part , adapted for generating a second command value which is a command value for simulation, the second command value being used for simulation by using the impulse response; and a time response outputting part , adapted for executing time response simulation of the mechanical system relative to the second command value based on the second command value and the impulse response. a frequency response function computing part , adapted for computing a frequency response function containing characteristics of the controlled object based on a relation between a first command value driving the mechanical system and a measured value of response of the mechanical system driven by the first command value; a simulation system , having a control block structure corresponding to the mechanical system ; a parameter setting part , adapted for setting a control parameter changing characteristics of the simulation system ; a frequency transfer function setting part , adapted for setting a frequency transfer function computed based on the frequency response function or based on the frequency response function and the control parameter into a frequency transfer function used for the simulation; an impulse response computing part , adapted for computing an impulse response by performing inverse Fourier transform on the frequency transfer function for simulation; a second command value generating part , adapted for generating a second command value which is a command value for simulation, the second command value being used for simulation by using the impulse response; and a time response outputting part , adapted for executing time response simulation of the mechanical system relative to the second command value based on the second command value and the impulse response.
A method for determining the effect of an oral care agent on the bioavailability of zinc ions in a composition comprising a source of the zinc ions by quantitatively determining the viability of standard combinations of viable and non-viable cells, and then quantitatively determining the viability of the cells produced by the presence of selected amounts of zinc ions via comparison of antimicrobial activity, and wherein the method comprises: a) incubating a sample of the composition comprising the source of the zinc ions with bacterial cells and the oral care agent, and b) determining the viability of the bacterial cells after incubation by comparing that viability to the viability of standard combinations obtained in the absence of the oral care agent; wherein the source of zinc ions comprises one or more of zinc chloride, zinc citrate and zinc oxide. a) incubating a sample of the composition comprising the source of the zinc ions with bacterial cells and the oral care agent, and b) determining the viability of the bacterial cells after incubation by comparing that viability to the viability of standard combinations obtained in the absence of the oral care agent; wherein the source of zinc ions comprises one or more of zinc chloride, zinc citrate and zinc oxide.
A vertical trench MOSFET comprising: a N-doped substrate of a III-N material; and an epitaxial layer of the III-N material grown on a top surface of the substrate , a N-doped drift region being formed in said epitaxial layer ; a P-doped base layer of said III-N material, the base layer being formed on top of at least a portion of the drift region ; a N-doped source region of said III-N material; the source region being formed on at least a portion of the base layer ; and a gate trench having at least one vertical wall extending along at least a portion of the source region (20; 42) and at least a portion of the base layer ; wherein at least a portion of the P-doped base layer along the gate trench is a layer of said P-doped III-N material that additionally comprises a percentage of aluminum that varies vertically. a N-doped substrate of a III-N material; and an epitaxial layer of the III-N material grown on a top surface of the substrate , a N-doped drift region being formed in said epitaxial layer ; a P-doped base layer of said III-N material, the base layer being formed on top of at least a portion of the drift region ; a N-doped source region of said III-N material; the source region being formed on at least a portion of the base layer ; and a gate trench having at least one vertical wall extending along at least a portion of the source region (20; 42) and at least a portion of the base layer ; wherein at least a portion of the P-doped base layer along the gate trench is a layer of said P-doped III-N material that additionally comprises a percentage of aluminum that varies vertically.
A method of selecting competitors for a multi-user competitive activity being performed over a telecommunications network , in which a first UE (110-1) and a second UE (110-2) are in communication with the telecommunications network, and the telecommunications network providing at least one network slice, wherein the method comprises the steps of: identifying a network slice onto which the first UE is allocated ; identifying a network slice onto which the second UE is allocated ; determining that the first UE and the second UE are to participate in the multi-user competitive activity; comparing network performance of the identified network slice onto which the first UE is allocated to network performance of the identified network slice onto which the second UE is allocated to identify a difference in network performance of the network slices; and in response to determining that the identified difference in network performance complies with a predetermined rule , selecting the first UE and the second UE to compete together within the same multi-user competitive activity . identifying a network slice onto which the first UE is allocated ; identifying a network slice onto which the second UE is allocated ; determining that the first UE and the second UE are to participate in the multi-user competitive activity; comparing network performance of the identified network slice onto which the first UE is allocated to network performance of the identified network slice onto which the second UE is allocated to identify a difference in network performance of the network slices; and in response to determining that the identified difference in network performance complies with a predetermined rule , selecting the first UE and the second UE to compete together within the same multi-user competitive activity .
A method of handling Timing Advance Groups, TAGs, in a User Equipment, UE, capable of Carrier Aggregation, CA, the method comprising monitoring time differences between signals received from any two serving cells ; determining for each time difference whether a configured capability of the UE supports the time difference , wherein the supported time difference of said configured capability of the UE is derived from how many carriers that are used and aggregated bandwidth , characterised in that the monitoring is performed for each serving cell such that a maximum time difference between serving cells and a maximum time difference between TAGs are determined , and the method comprises configuring baseband circuitry of the UE according to the configured capability of the UE that supports the determined maximum time differences . monitoring time differences between signals received from any two serving cells ; determining for each time difference whether a configured capability of the UE supports the time difference , wherein the supported time difference of said configured capability of the UE is derived from how many carriers that are used and aggregated bandwidth , characterised in that the monitoring is performed for each serving cell such that a maximum time difference between serving cells and a maximum time difference between TAGs are determined , and the method comprises configuring baseband circuitry of the UE according to the configured capability of the UE that supports the determined maximum time differences .
A method of heating a food product being conveyed on a cook belt in a spiral oven having a forward/reversing fan with a plurality of fan blades, the forward/reversing fan arranged above and concentric to the cook belt, and with heating elements located above the forward/reversing fan , the method comprising the steps of: producing a first airflow in a first rotational direction during a time "T1", said first airflow flowing between an upper and lower portion of a cooking chamber of a spiral oven wherein the first rotational direction is vertically upward along an inside edge of the cook belt and vertically downward along an outside edge of the cook belt ; and producing a second airflow in a second rotational direction during a time "T2", said second airflow flowing between the upper and lower portion of the cooking chamber ; the second rotational direction being inverted relative to that of the first rotational direction ; the method including running the forward/reversing fan at a same rpm regardless of a direction of rotation of the forward/reversing fan ; and wherein T1 and T2 comprise unequal amounts of time with T1 being in a range of about 60% to 90% of a total timed cycle T in which the airflow occurs and T being equal to the sum of T1 + T2. producing a first airflow in a first rotational direction during a time "T1", said first airflow flowing between an upper and lower portion of a cooking chamber of a spiral oven wherein the first rotational direction is vertically upward along an inside edge of the cook belt and vertically downward along an outside edge of the cook belt ; and producing a second airflow in a second rotational direction during a time "T2", said second airflow flowing between the upper and lower portion of the cooking chamber ; the second rotational direction being inverted relative to that of the first rotational direction ; the method including running the forward/reversing fan at a same rpm regardless of a direction of rotation of the forward/reversing fan ; and wherein T1 and T2 comprise unequal amounts of time with T1 being in a range of about 60% to 90% of a total timed cycle T in which the airflow occurs and T being equal to the sum of T1 + T2.
A method for controlling a smartwatch, wherein N capacitive touch sensors are disposed as a circular ring around a watch face of the smartwatch, and N is an integer greater than 1; and the method comprises: obtaining a calibrated capacitance value of each capacitive touch sensor; determining a quantity of touch points based on maximum values of the calibrated capacitance values of the N capacitive touch sensors, wherein each touch point corresponds to one capacitive touch sensor; determining a location of each touch point based on a calibrated capacitance value of a capacitive touch sensor corresponding to the touch point and a calibrated capacitance value of a capacitive touch sensor neighboring to the capacitive touch sensor, wherein the location of each touch point is a circumferential angle P around the watch face; determining, according to a preset mapping rule, a mapping point corresponding to a circumferential angle P of a first touch point, wherein the mapping point corresponds to an application displayed on the display user interface of the smartwatch, and the first touch point is any touch point; and executing a control instruction that is for the application corresponding to the mapping point and that matches the quantity of touch points and the circumferential angle of each touch point. obtaining a calibrated capacitance value of each capacitive touch sensor; determining a quantity of touch points based on maximum values of the calibrated capacitance values of the N capacitive touch sensors, wherein each touch point corresponds to one capacitive touch sensor; determining a location of each touch point based on a calibrated capacitance value of a capacitive touch sensor corresponding to the touch point and a calibrated capacitance value of a capacitive touch sensor neighboring to the capacitive touch sensor, wherein the location of each touch point is a circumferential angle P around the watch face; determining, according to a preset mapping rule, a mapping point corresponding to a circumferential angle P of a first touch point, wherein the mapping point corresponds to an application displayed on the display user interface of the smartwatch, and the first touch point is any touch point; and executing a control instruction that is for the application corresponding to the mapping point and that matches the quantity of touch points and the circumferential angle of each touch point.
A battery module comprising: a lower shell body having a cooling plate and a plurality of separator plates provided on the cooling plate at intervals; and an upper cover hermetically connected with tops of the plurality of the separator plates , the upper cover including a coolant inlet ; a front cover plate and a back cover plate hermetically connected with frontmost and backmost sides of the plurality of the separator plates respectively, wherein the cooling plate , the upper cover , the front cover plate , the back cover plate and the plurality of separator plates are hermetically connected to form a plurality of separate sealing spaces for receiving battery cores and electrolytes therein respectively, wherein main flow channels are included inside the upper cover and the cooling plate respectively, a main outlet channel formed in the cooling plate has a coolant outlet , and branch flow channels are included inside the separator plates respectively, the branch flow channels are in fluid communication with the main flow channels, and wherein the cross sectional area of the coolant inlet is smaller than that of the coolant outlet by 10%-20%. a lower shell body having a cooling plate and a plurality of separator plates provided on the cooling plate at intervals; and an upper cover hermetically connected with tops of the plurality of the separator plates , the upper cover including a coolant inlet ; a front cover plate and a back cover plate hermetically connected with frontmost and backmost sides of the plurality of the separator plates respectively, wherein the cooling plate , the upper cover , the front cover plate , the back cover plate and the plurality of separator plates are hermetically connected to form a plurality of separate sealing spaces for receiving battery cores and electrolytes therein respectively, wherein main flow channels are included inside the upper cover and the cooling plate respectively, a main outlet channel formed in the cooling plate has a coolant outlet , and branch flow channels are included inside the separator plates respectively, the branch flow channels are in fluid communication with the main flow channels, and wherein the cross sectional area of the coolant inlet is smaller than that of the coolant outlet by 10%-20%.
Deep-drawn container made of at least one layer of aluminium having at least one layer of seal material, which is located on the inner side of the container after the deep-drawing process, having a base and having lateral walls which form a sealing surface on the peripheral upper edge in a sealing plane and which merge into a base on the peripheral lower edge, wherein at least one side wall has an inclination against the normal to the sealing surface, characterised in that at least one side wall has an imprint and, in the imprinted region, has an inclination against the normal to the sealing surface of at least 10°, and at the transition from the unimprinted, normal region of the side wall, roundings with a radius of between 0.1 and 0.3mm are provided for stamping.
Lyophilizate of undifferentiated Crithmum maritimum cells, for its use in a therapeutic treatment method for promoting hair growth.
An aqueous paint composition comprising by dry weight based on total dry weight of the pigment composition, from 12% to 25% of a polymeric duller of (co)polymeric particles having an average diameter of from 2 to 10 μm and a minimum film forming temperature (MFFT) of above 50 °C, and from 28% to 55% of titanium dioxide particles; wherein from 50% to 100% of the titanium dioxide particles are encapsulated by polymer shell of (co)polymeric particles. from 12% to 25% of a polymeric duller of (co)polymeric particles having an average diameter of from 2 to 10 μm and a minimum film forming temperature (MFFT) of above 50 °C, and from 28% to 55% of titanium dioxide particles; wherein from 50% to 100% of the titanium dioxide particles are encapsulated by polymer shell of (co)polymeric particles.
A plate fin heat exchanger comprising: a first cast plate assembly including at least two plate portions separated by at least one cooling channel , each of the two plate portions including a plurality of internal passages extending between a corresponding plurality of inlets and outlets , wherein a common inlet perimeter surrounds the plurality of inlets from each of the two plate portions and a common outlet perimeter surrounds the plurality of outlets from each of the two plate portions ; an inlet manifold attached at an inlet joint to the inlet perimeter ; an outlet manifold attached at an outlet joint to the outlet perimeter ; and characterised by at least one additional cast plate assembly with an additional inlet perimeter attached at an additional inlet joint to the inlet manifold and an additional outlet perimeter attached at an additional outlet j oint to the outlet manifold . a first cast plate assembly including at least two plate portions separated by at least one cooling channel , each of the two plate portions including a plurality of internal passages extending between a corresponding plurality of inlets and outlets , wherein a common inlet perimeter surrounds the plurality of inlets from each of the two plate portions and a common outlet perimeter surrounds the plurality of outlets from each of the two plate portions ; an inlet manifold attached at an inlet joint to the inlet perimeter ; an outlet manifold attached at an outlet joint to the outlet perimeter ; and characterised by at least one additional cast plate assembly with an additional inlet perimeter attached at an additional inlet joint to the inlet manifold and an additional outlet perimeter attached at an additional outlet j oint to the outlet manifold .