mhurhangee/patent-ind-claim-en huggingface dataset:
A human body wearable device , comprising: a light emitting unit for emitting light to outside; a light receiving unit for receiving light incident from outside; and a control unit for controlling an operation of the light emitting unit and detecting an intensity of light incident on the light receiving unit depending on the operation of the light emitting unit , and determining whether the human body wearable device is worn on a specific object or not based on an intensity of detected light, wherein the control unit determines whether the human body wearable device is worn or not using a difference value between an intensity of light incident on the light receiving unit in an ON section of the light emitting unit and that of light incident on the light receiving unit in an OFF section of the light emitting unit , and wherein the control unit determines the human body wearable device which is not worn if the difference value is zero, and determines the human body wearable device which is worn on a specific object if the difference value is greater than zero, and wherein the control unit determines whether the human body wearable device is worn on a human body or in contact with a thing based on an intensity of light received through the light receiving unit in the ON section of the light emitting unit if the state of the human body wearable device is determined to be worn on a specific object. a light emitting unit for emitting light to outside; a light receiving unit for receiving light incident from outside; and a control unit for controlling an operation of the light emitting unit and detecting an intensity of light incident on the light receiving unit depending on the operation of the light emitting unit , and determining whether the human body wearable device is worn on a specific object or not based on an intensity of detected light, wherein the control unit determines whether the human body wearable device is worn or not using a difference value between an intensity of light incident on the light receiving unit in an ON section of the light emitting unit and that of light incident on the light receiving unit in an OFF section of the light emitting unit , and wherein the control unit determines the human body wearable device which is not worn if the difference value is zero, and determines the human body wearable device which is worn on a specific object if the difference value is greater than zero, and wherein the control unit determines whether the human body wearable device is worn on a human body or in contact with a thing based on an intensity of light received through the light receiving unit in the ON section of the light emitting unit if the state of the human body wearable device is determined to be worn on a specific object.
Control device for heating, ventilation and air-conditioning machine , said heating, ventilation and air-conditioning machine comprising a monitoring-control unit having a first input (in_Tcons) receiving a setpoint temperature value, a second input (in1, in2) receiving an input signal and at least one output (out), applied to which is a control signal determined by the monitoring-control unit according to the input signal and the setpoint temperature value, the control device including: - at least one input (in_T1, in_T2) intended to be connected to a temperature sensor (T1, T2) in order to receive, from the temperature sensor, at least one measured temperature value and an output intended to be connected to the second input (in1, in2) of the monitoring-control unit , said device being arranged to determine an imaginary temperature value (T1_sim, T2_sim) to be applied to the second input (in1, in2) of the monitoring-control unit according to the temperatures value measured by the temperature sensor (T1, T2) so that the monitoring-control unit of the machine generates a control signal forcing a particular operating mode of the machine to be triggered, characterized in that the control device includes: - a self-learning module (M2) arranged to determine the imaginary temperatures (T1_sim, T2_sim) to be applied and a module (M1) for correcting the temperatures comprising variable resistors (Rs, Rp), the values of which are adjusted according to the imaginary temperature (T1_sim, T2_sim) to be applied. - at least one input (in_T1, in_T2) intended to be connected to a temperature sensor (T1, T2) in order to receive, from the temperature sensor, at least one measured temperature value and an output intended to be connected to the second input (in1, in2) of the monitoring-control unit , said device being arranged to determine an imaginary temperature value (T1_sim, T2_sim) to be applied to the second input (in1, in2) of the monitoring-control unit according to the temperatures value measured by the temperature sensor (T1, T2) so that the monitoring-control unit of the machine generates a control signal forcing a particular operating mode of the machine to be triggered, - a self-learning module (M2) arranged to determine the imaginary temperatures (T1_sim, T2_sim) to be applied and a module (M1) for correcting the temperatures comprising variable resistors (Rs, Rp), the values of which are adjusted according to the imaginary temperature (T1_sim, T2_sim) to be applied.
A computer-implemented method of synchronizing content items, the method comprising: storing by a client device a first shadow item , wherein the first shadow item represents a first content item stored on a separate host device that is remote to the client device and the first shadow item is comprised of metadata of the first content item stored on the client device, the metadata including a size of the first content item, without content data of the first content item being on the client device; receiving , by the client device, a request to access the first content item; determining , by the client device, from the metadata of the first shadow item that the size of the first content item exceeds a remaining amount of storage allocated on the client device; selecting , by the client device, at least one content item to remove from the client device, wherein a copy of each selected content item is already stored on the host device, wherein the number of content items are selected such that a total size of the selected content items is greater than or equal to the size of the first content item; replacing , by the client device, each selected content item with a shadow item representing the selected content item on the client device; retrieving, by the client device, the first content item from the host device; and replacing, by the client device, the first shadow item representing the first content item with the first content item. storing by a client device a first shadow item , wherein the first shadow item represents a first content item stored on a separate host device that is remote to the client device and the first shadow item is comprised of metadata of the first content item stored on the client device, the metadata including a size of the first content item, without content data of the first content item being on the client device; receiving , by the client device, a request to access the first content item; determining , by the client device, from the metadata of the first shadow item that the size of the first content item exceeds a remaining amount of storage allocated on the client device; selecting , by the client device, at least one content item to remove from the client device, wherein a copy of each selected content item is already stored on the host device, wherein the number of content items are selected such that a total size of the selected content items is greater than or equal to the size of the first content item; replacing , by the client device, each selected content item with a shadow item representing the selected content item on the client device; retrieving, by the client device, the first content item from the host device; and replacing, by the client device, the first shadow item representing the first content item with the first content item.
A machine for manufacturing pouches containing a cohesionless material, comprising feed means for feeding the cohesionless material to a pick-up station , a transfer drum by which the material is picked up at the pick-up station and transferred to a release station , delivery means operating at the release station and by which portions of the material are delivered from the transfer drum through a duct toward a wrapping station at which the portions are sealed in pouches , characterized in that the machine further comprises a mixer located at the pick-up station for performing a mixing action on the material at the pick-up station before the material is picked up by the transfer drum .
A system for the verification of a connection of an absence of voltage detector comprising: a voltage detection circuit; the system characterized by a charge pump circuit configured to create a voltage similar to one intended to be detected by the voltage detection circuit; an independent high impedance path to ground connected to the source to be detected such as to create a voltage divider to the charge pump circuit. a voltage detection circuit; the system characterized by a charge pump circuit configured to create a voltage similar to one intended to be detected by the voltage detection circuit; an independent high impedance path to ground connected to the source to be detected such as to create a voltage divider to the charge pump circuit.
A system for facilitating central out of band (OOB) management of a plurality of hot-swappable field replaceable units (FRUs) , comprising: a plurality of frame arms interconnected by a fixed topology, wherein each of the frame arms comprises circuitry that a) is configured to detect when one of a plurality of FRUs is electrically interconnected to the frame arm and to send an alert of the detected FRU to a management controller that is electronically interconnected to the fixed topology, and b) is configured to make available, to the management controller , information indicating a particular location within the system of the frame arm for use in performing out of band (OOB) management of the FRU interconnected to the frame arm, wherein the circuitry comprises an I 2 C data bus that is electrically interconnected to the fixed topology, and wherein the circuitry comprises logic configured to convert serial data signals received from a FRU that is electrically interconnected to the frame arm into I 2 C signals; and further wherein the plurality of frame arms are configured to accept FRUs having different form factors. a plurality of frame arms interconnected by a fixed topology, wherein each of the frame arms comprises circuitry that a) is configured to detect when one of a plurality of FRUs is electrically interconnected to the frame arm and to send an alert of the detected FRU to a management controller that is electronically interconnected to the fixed topology, and b) is configured to make available, to the management controller , information indicating a particular location within the system of the frame arm for use in performing out of band (OOB) management of the FRU interconnected to the frame arm, wherein the circuitry comprises an I 2 C data bus that is electrically interconnected to the fixed topology, and wherein the circuitry comprises logic configured to convert serial data signals received from a FRU that is electrically interconnected to the frame arm into I 2 C signals; and further wherein the plurality of frame arms are configured to accept FRUs having different form factors.
A sieve device for a harvester , in particular for a combine harvester, in particular for separating loose crops from plant residues, the sieve device including - at least one sieve frame , - a plurality of slats arranged on the sieve frame , and - at least one adjusting device for adjusting slats , wherein the slats are arranged on the sieve frame in such a way that they define passage cross-sections for the passage of material therethrough from a top side of the sieve device towards the underside thereof, wherein at least a majority of the slats cooperates with the adjusting device in such a way that sieve positions of the slats are variable, wherein the passage cross-sections are different when the slats are in different sieve positions, wherein the adjusting device includes at least one motor and at least one transmission member , by means of which drive power of the motor can be transmitted to the slats cooperating with the adjusting device so that the sieve positions of the slats are variable, characterised in that the adjusting device includes a linear element and a rotary element , wherein the linear element can be displaced in a translatory movement by means of the motor and the translatory movement can be converted into a rotary movement of the rotary element by means of the action of thread portions of complementary configuration of the linear element and the rotary element so that the rotary element rotates about an axis of rotation parallel to a longitudinal axis of the adjusting device . - at least one sieve frame , - a plurality of slats arranged on the sieve frame , and - at least one adjusting device for adjusting slats ,
Protective cover for a profile pipe system comprising at least two profile pipes , that are connected to one another, substantially orthogonally, via a connecting element , - wherein the protective cover has a second protective cover component that can be connected with a first protective cover component , which covers the connecting element in the assembled state, - wherein a latching contour and a counter-latching contour are arranged on a first protective cover component and a complementary counter-latching contour and latching contour , designed to be complementary thereto, are arranged on the second protective cover component , so that two protective cover components are secured to one another via two latching connections, - wherein the protective cover has a hollow cylindrical section and an adjoining pointed section , characterised in that the pointed section has two mutually orthogonal flanks , which each have a curved recess for a profile pipe extending orthogonally to the two profile pipes , - in that the respective latching contour is designed as a latching hook that has a curved back and which, when the protective cover is assembled, runs flush with a surface of the hollow cylindrical section . - wherein the protective cover has a second protective cover component that can be connected with a first protective cover component , which covers the connecting element in the assembled state, - wherein a latching contour and a counter-latching contour are arranged on a first protective cover component and a complementary counter-latching contour and latching contour , designed to be complementary thereto, are arranged on the second protective cover component , so that two protective cover components are secured to one another via two latching connections, - wherein the protective cover has a hollow cylindrical section and an adjoining pointed section , characterised in that - in that the respective latching contour is designed as a latching hook that has a curved back and which, when the protective cover is assembled, runs flush with a surface of the hollow cylindrical section .
A method of predicting maintenance events with respect to resources , the method being performed by one or more processors or special-purpose computing hardware, the method comprising: receiving a notification of a maintenance event associated with a resource; retrieving historical maintenance data in relation to the resource with which the maintenance event is associated, the maintenance data originating from a time period preceding the time of the maintenance event; analyzing the retrieved historical maintenance data, including comparing the retrieved historical maintenance data with historical maintenance data from related resources, to identify at least a portion of the retrieved historical maintenance data as being indicative of the maintenance event; storing the portion of the retrieved historical maintenance data identified as being indicative of the maintenance event as a precursor signal of the maintenance event; and monitoring future maintenance data received from a plurality of other resources related to the resource with which the maintenance event is associated to predict a future occurrence of the maintenance event in the plurality of other resources. receiving a notification of a maintenance event associated with a resource; retrieving historical maintenance data in relation to the resource with which the maintenance event is associated, the maintenance data originating from a time period preceding the time of the maintenance event; analyzing the retrieved historical maintenance data, including comparing the retrieved historical maintenance data with historical maintenance data from related resources, to identify at least a portion of the retrieved historical maintenance data as being indicative of the maintenance event; storing the portion of the retrieved historical maintenance data identified as being indicative of the maintenance event as a precursor signal of the maintenance event; and monitoring future maintenance data received from a plurality of other resources related to the resource with which the maintenance event is associated to predict a future occurrence of the maintenance event in the plurality of other resources.
A fluid control device , the device comprising: a housing having an inlet fluidically coupleable to a bodily fluid source and an outlet fluidically coupleable to a fluid collection device, the housing defining a containment channel between the inlet and the outlet and defining a sampling channel between the inlet and the outlet; a first flow controller configured to allow a gas but not a bodily fluid to flow therethrough from the containment channel; and a second flow controller (775/776) disposed within the housing between the inlet and the outlet, the second flow controller configured to prevent the gas and the bodily fluid from flowing through the sampling channel to the outlet when in a first operating mode such that a negative pressure differential generated by the outlet fluidically coupling to the fluid collection device draws a volume of the bodily fluid into the containment channel, in response to the volume of the bodily fluid in the containment channel, the first flow controller configured such that the negative pressure differential in a portion of the sampling channel between the second flow controller and the outlet increases and transitions the second flow controller from the first operating mode to a second operating mode in which the second flow controller allows bodily fluid to flow through the sampling channel from the inlet toward the outlet. a housing having an inlet fluidically coupleable to a bodily fluid source and an outlet fluidically coupleable to a fluid collection device, the housing defining a containment channel between the inlet and the outlet and defining a sampling channel between the inlet and the outlet; a first flow controller configured to allow a gas but not a bodily fluid to flow therethrough from the containment channel; and a second flow controller (775/776) disposed within the housing between the inlet and the outlet, the second flow controller configured to prevent the gas and the bodily fluid from flowing through the sampling channel to the outlet when in a first operating mode such that a negative pressure differential generated by the outlet fluidically coupling to the fluid collection device draws a volume of the bodily fluid into the containment channel, in response to the volume of the bodily fluid in the containment channel, the first flow controller configured such that the negative pressure differential in a portion of the sampling channel between the second flow controller and the outlet increases and transitions the second flow controller from the first operating mode to a second operating mode in which the second flow controller allows bodily fluid to flow through the sampling channel from the inlet toward the outlet.
A learning continuous process for producing polyurethane prepolymers, comprising reaction of a) di- or polyisocyanates with b) compounds having isocyanate-reactive hydrogen atoms, optionally in the presence of c) catalysts, additives, auxiliary and/or added substances in a residence time reactor with plug flow, wherein the value of at least one physical property of the product leaving the residence time reactor is periodically or continuously checked and in the event of a deviation from a predetermined target value the temperature and/or the flow rate of the reactants entering the residence time reactor and/or the flow rate through the residence time reactor and/or the temperature of the residence time reactor are adapted, wherein the process data and product data and optionally external data are sent to a data processing in which a data analysis is carried out and on the basis of the data analysis using optimization algorithms for parameter adaptation new optimized parameters are calculated which are then used to control the process. a) di- or polyisocyanates with b) compounds having isocyanate-reactive hydrogen atoms, optionally in the presence of c) catalysts, additives, auxiliary and/or added substances
A thoracic lumbar sacral orthosis attachment for configuring an orthopedic device as a thoracic lumbar sacral orthosis by connecting the TLSO attachment to the orthopedic device , the TLSO attachment comprising: - an anterior panel arranged to connect to the orthopedic device ; - an anterior thoracic extension (ATE) secured to the anterior panel ; - a support bar extending from the ATE ; - at least one strap system including an axillary strap system and/or a shoulder strap system removably securing onto a surface of the orthopedic device . wherein the ATE comprises first and second parts connected to one another by a first hinge , the second part hingedly coupling to the support bar at a second hinge , the first and second hinges being lockable to form fixed angles between the first and second parts , and between the first part and/or second part and the support bar , characterized in that the second part is removable from the ATE to create a shorter configuration of the ATE . - an anterior panel arranged to connect to the orthopedic device ; - an anterior thoracic extension (ATE) secured to the anterior panel ; - a support bar extending from the ATE ; - at least one strap system including an axillary strap system and/or a shoulder strap system removably securing onto a surface of the orthopedic device .