mhurhangee/ep-ind-claims huggingface dataset:
An image pick-up apparatus comprising: an imaging means for imaging an object; a main unit containing the imaging means; a displaying means (1/7) having a display screen, the display screen being moveable with respect to the main unit; a contact-position detecting means (2/11) for detecting a position which is contacted by a user, the contact-position detecting means being disposed on the displaying means; orientation detecting means (5/18) for detecting an orientation of the displaying means with respect to the main unit; control means for setting one of a plurality of modes according to the orientation of the displaying means detected by the orientation detecting means and for instructing display control means to control display of image data captured by the imaging means and command icons for camera operation corresponding to the set mode, by inverting or rotating the captured image data and the command icons respectively; memory means for storing relationships between coordinate positions on the display screen and respective associated processings; and wherein the control means is configured, upon detecting by said contact-position detecting means that an operating part of the displaying means, at which one of said command icons is displayed, is touched, to transform the operating part into a coordinate position in said memory means according to said detected orientation, thereby performing the associated processing, and wherein the control means is configured to instruct the display control means to control the display of the command icons such that they are displayed at the same position and in the same orientation for the user, regardless of the orientation of the displaying means. an imaging means for imaging an object; a main unit containing the imaging means; a displaying means (1/7) having a display screen, the display screen being moveable with respect to the main unit; a contact-position detecting means (2/11) for detecting a position which is contacted by a user, the contact-position detecting means being disposed on the displaying means; orientation detecting means (5/18) for detecting an orientation of the displaying means with respect to the main unit; control means for setting one of a plurality of modes according to the orientation of the displaying means detected by the orientation detecting means and for instructing display control means to control display of image data captured by the imaging means and command icons for camera operation corresponding to the set mode, by inverting or rotating the captured image data and the command icons respectively; memory means for storing relationships between coordinate positions on the display screen and respective associated processings; and wherein the control means is configured, upon detecting by said contact-position detecting means that an operating part of the displaying means, at which one of said command icons is displayed, is touched, to transform the operating part into a coordinate position in said memory means according to said detected orientation, thereby performing the associated processing, and
An agricultural implement having at least one working unit and a detection device for detecting living organisms in a working path of the working unit, wherein the detection device has at least one sensor for sensing the working path of the working unit, wherein an energy emission device is formed, which serves to startle the living creature, characterized in that the agricultural implement is configured in such a way that an energy-containing signal is emitted by means of the energy emission device, which serves to startle the living creature so that it can be detected by the sensor.
A drug-delivery device assembly (110, 110', 110", 110"') comprising: a manifold (122, 122', 122", 122′′′) comprising a drug channel (132, 132', 132", 132"'), the manifold (122, 122', 122", 122′′′) configured to detachably couple with an infusion hub (102, 102', 102", 102′′′) configured to subcutaneously deliver a primary drug into a patient's body; a drug reservoir (136, 136') configured to store a secondary drug (155, 155', 155", 155′′′), the drug reservoir (136, 136') disposed within the manifold (122, 122', 122", 122′′′) and coupled to the drug channel (132, 132', 132", 132′′′); a drug plunger (148, 148", 148"') being movable relative to the drug reservoir (136, 136'); and a biasing member (152, 152', 152", 152′′′) configured to move away from a loaded state and toward an unloaded state to move the drug plunger (148, 148", 148′′′) relative to the drug reservoir (136, 136') and force the secondary drug (155, 155', 155", 155′′′) from the drug reservoir (136, 136'), through the drug channel (132, 132', 132", 132′′′), through the infusion hub (102, 102', 102", 102′′′), and into the patient's body; characterized in that the manifold (122, 122', 122", 122′′′) further comprises a resistance channel (142, 172", 178"') configured to carry a resistance medium (156, 156', 156", 156′′′), wherein a movement of the resistance medium (156, 156', 156", 156′′′) in the resistance channel (142, 172", 178′′′) provides resistance to a movement of the biasing member (152, 152', 152", 152"') away from the loaded state and toward the unloaded state. a manifold (122, 122', 122", 122′′′) comprising a drug channel (132, 132', 132", 132"'), the manifold (122, 122', 122", 122′′′) configured to detachably couple with an infusion hub (102, 102', 102", 102′′′) configured to subcutaneously deliver a primary drug into a patient's body; a drug reservoir (136, 136') configured to store a secondary drug (155, 155', 155", 155′′′), the drug reservoir (136, 136') disposed within the manifold (122, 122', 122", 122′′′) and coupled to the drug channel (132, 132', 132", 132′′′); a drug plunger (148, 148", 148"') being movable relative to the drug reservoir (136, 136'); and a biasing member (152, 152', 152", 152′′′) configured to move away from a loaded state and toward an unloaded state to move the drug plunger (148, 148", 148′′′) relative to the drug reservoir (136, 136') and force the secondary drug (155, 155', 155", 155′′′) from the drug reservoir (136, 136'), through the drug channel (132, 132', 132", 132′′′), through the infusion hub (102, 102', 102", 102′′′), and into the patient's body; characterized in that the manifold (122, 122', 122", 122′′′) further comprises a resistance channel (142, 172", 178"') configured to carry a resistance medium (156, 156', 156", 156′′′), wherein a movement of the resistance medium (156, 156', 156", 156′′′) in the resistance channel (142, 172", 178′′′) provides resistance to a movement of the biasing member (152, 152', 152", 152"') away from the loaded state and toward the unloaded state.
A prosthetic system, comprising: a prosthetic foot having a heel portion; a pump mechanism; a prosthetic socket in fluid communication with the pump mechanism and connected to the prosthetic foot; a first member connected with a first end to the prosthetic foot and connected to the pump mechanism; and a second member carrying the pump mechanism and having a first end that extends over and engages the heel portion of the prosthetic foot and a second end that is secured to the first member; wherein the pump mechanism includes a housing secured to the second member and a membrane connected to the first member and the housing, wherein the pump mechanism defines a fluid chamber between a bottom surface of the housing and a top surface of the membrane; and the first and second members (32, 34) are movable relative to one another upon movement of the prosthetic foot such that the pump mechanism varies in volume as the first and second members (32, 34) move relative to one another, wherein when no weight is placed on the prosthetic foot the volume of the fluid chamber is zero or near-zero and when weight of a user is placed on the heel portion of the prosthetic foot the heel portion engages the first end of the second member to force apart the first and second members (32, 34) and to expand the volume of the fluid chamber to draw fluid into the fluid chamber from the prosthetic socket. a prosthetic foot having a heel portion; a pump mechanism; a prosthetic socket in fluid communication with the pump mechanism and connected to the prosthetic foot; a first member connected with a first end to the prosthetic foot and connected to the pump mechanism; and a second member carrying the pump mechanism and having a first end that extends over and engages the heel portion of the prosthetic foot and a second end that is secured to the first member; wherein the pump mechanism includes a housing secured to the second member and a membrane connected to the first member and the housing, wherein the pump mechanism defines a fluid chamber between a bottom surface of the housing and a top surface of the membrane; and the first and second members (32, 34) are movable relative to one another upon movement of the prosthetic foot such that the pump mechanism varies in volume as the first and second members (32, 34) move relative to one another, wherein when no weight is placed on the prosthetic foot the volume of the fluid chamber is zero or near-zero and when weight of a user is placed on the heel portion of the prosthetic foot the heel portion engages the first end of the second member to force apart the first and second members (32, 34) and to expand the volume of the fluid chamber to draw fluid into the fluid chamber from the prosthetic socket.
A method comprising providing a feedstock slurry comprising a fermentable carbon source, undissolved solids, and oil; separating the feedstock slurry whereby (i) a first aqueous solution comprising a fermentable carbon source, (ii) a first wet cake comprising solids, and (iii) a stream comprising oil, solids, and an aqueous stream comprising a fermentable carbon source are formed; adding the first aqueous solution to a fermentation broth comprising microorganisms whereby a fermentation product is produced; separating the stream (iii) whereby an oil stream, a second wet cake comprising solids, and a second aqueous solution comprising a fermentable carbon source are formed; and adding the second aqueous solution to liquefaction and/or feedstock preparation. (i) a first aqueous solution comprising a fermentable carbon source, (ii) a first wet cake comprising solids, and (iii) a stream comprising oil, solids, and an aqueous stream comprising a fermentable carbon source are formed;
A terminal device (102, 103) comprising: means for receiving, from a base station, in a master information block, MIB, first information indicating a resource allocation related to a system information block, SIB, and second information indicating a subcarrier spacing value for the SIB; and means for receiving the SIB from the base station in accordance with the MIB. means for receiving, from a base station, in a master information block, MIB, first information indicating a resource allocation related to a system information block, SIB, and second information indicating a subcarrier spacing value for the SIB; and means for receiving the SIB from the base station in accordance with the MIB.
Metering valve for viscous materials, having a housing, having a material channel that runs in the housing and ends in multiple material outlet openings, and having a number of valve needles displaceably mounted in the housing, which number corresponds to the number of material outlet openings, wherein each valve needle has a valve seat assigned to it, and wherein each valve needle can be moved between a closed position in which it sits on the valve seat assigned to it and closes off one of the material outlet openings, and an open position in which the material outlet opening in question is exposed, characterized in that the valve needles are produced from carbide and are passed through feed-through openings in a guide block arranged at a distance from the valve seats, in longitudinally displaceable manner, wherein the guide block is produced from carbide, at least on the inner surfaces of the feed-through openings that face the valve needles.
A control circuit for controlling operative components of a system, comprising: a latching relay including at least a set coil and a reset coil; a reset monitoring circuit having a first node coupled to a power supply input, the reset monitoring circuit being configured to output a reset status signal, indicating a component fault, from the latching relay to a microcontrol unit 'MCU', an input terminal of the reset coil being configured to activate the reset coil in the event of said component fault; the control circuit comprising the MCU wherein, under a normal operation, the MCU operates to constantly reinforce a normal state of the relay by supplying a signal of a given period and pulse width to the set coil, wherein under normal operation the MCU sends periodic refresh signals to a watchdog circuit, wherein the MCU is configured to receive the reset status signal from the reset monitoring circuit operative to monitor the reset coil informing the MCU whether a relay contact corresponding to the reset coil is in a desired state, and the control circuit comprising the watchdog circuit, the watchdog circuit communicative with the MCU, wherein the watchdog circuit is configured to activate the reset coil in the event that the MCU stops communication of said periodic refresh signals to the watchdog circuit indicating the component fault. a latching relay including at least a set coil and a reset coil; a reset monitoring circuit having a first node coupled to a power supply input, the reset monitoring circuit being configured to output a reset status signal, indicating a component fault, from the latching relay to a microcontrol unit 'MCU', an input terminal of the reset coil being configured to activate the reset coil in the event of said component fault; the control circuit comprising the MCU wherein, under a normal operation, the MCU operates to constantly reinforce a normal state of the relay by supplying a signal of a given period and pulse width to the set coil, wherein under normal operation the MCU sends periodic refresh signals to a watchdog circuit, wherein the MCU is configured to receive the reset status signal from the reset monitoring circuit operative to monitor the reset coil informing the MCU whether a relay contact corresponding to the reset coil is in a desired state, and the control circuit comprising the MCU wherein, under a normal operation, the MCU operates to constantly reinforce a normal state of the relay by supplying a signal of a given period and pulse width to the set coil, wherein under normal operation the MCU sends periodic refresh signals to a watchdog circuit, wherein the MCU is configured to receive the reset status signal from the reset monitoring circuit operative to monitor the reset coil informing the MCU whether a relay contact corresponding to the reset coil is in a desired state, and the control circuit comprising the watchdog circuit, the watchdog circuit communicative with the MCU, wherein the watchdog circuit is configured to activate the reset coil in the event that the MCU stops communication of said periodic refresh signals to the watchdog circuit indicating the component fault.
A process for the production of solid particles, where the solid particle P comprises from 50 to 99.7 parts by weight of at least one lactam, from 0.2 to 8 parts by weight of at least one activator, and from 0.1 to 3.6 parts by weight of at least one catalyst, where the average diameter of the particle is in the range from 1 to 2000 μm, preferably from 10 to 1000 μm, particularly preferably from 50 to 500 μm, very particularly preferably from 100 to 200 μm, where the diameter is determined via light scattering and means the volume-average diameter, which comprises cooling a mixture which comprises from 50 to 99.7 parts by weight of at least one lactam, from 2.4 to 8 parts by weight of at least one activator, and from 0.54 to 3.6 parts by weight of at least one catalyst, where the process comprises the following steps: 1a. mixing of components,, and, and optionally of further components, at a temperature in the range from the melting point of the highest-melting-point lactam monomer comprised in the mixture to 50°C above the melting point of the highest-melting-point lactam monomer comprised in the mixture; 1b. conversion of the mixture to droplet form; 1c. cooling of the droplet obtained in step b) to a temperature in the range from 100°C below the melting point of the mixture to 10°C below the melting point of the mixture; 1d. optional granulation of the cooled mixture. 1a. mixing of components,, and, and optionally of further components, at a temperature in the range from the melting point of the highest-melting-point lactam monomer comprised in the mixture to 50°C above the melting point of the highest-melting-point lactam monomer comprised in the mixture; 1b. conversion of the mixture to droplet form; 1c. cooling of the droplet obtained in step b) to a temperature in the range from 100°C below the melting point of the mixture to 10°C below the melting point of the mixture; 1d. optional granulation of the cooled mixture.
A quantum memory device operable at temperatures in the range of about 0°C to about 100°C, comprising: an inner structural frame; an outer shell surrounding the inner structural frame; a probe input configured to receive a probe-field photon beam including quantum information encoded in polarization states of one or more photons of the probe-field photon beam; a control input configured to receive a control-field photon beam; a quantum memory module optically coupled to the probe input and the control input and comprising at least one vapor cell configured to store the quantum information as photons of two independent photon beams, each of the two independent photon beams being a merged beam formed via a split beam of the quantum information and a split beam of the control-field photon beam; a filtering module optically coupled to the quantum memory module and configured to retrieve the quantum information therefrom; and an output configured to output the quantum information from the filtering module wherein the quantum memory module and filtering module are disposed within the outer shell and supported by the inner structural frame which attaches the filtering module to the quantum memory module such that the quantum memory device is portable. an inner structural frame; an outer shell surrounding the inner structural frame; a probe input configured to receive a probe-field photon beam including quantum information encoded in polarization states of one or more photons of the probe-field photon beam; a control input configured to receive a control-field photon beam; a quantum memory module optically coupled to the probe input and the control input and comprising at least one vapor cell configured to store the quantum information as photons of two independent photon beams, each of the two independent photon beams being a merged beam formed via a split beam of the quantum information and a split beam of the control-field photon beam; a filtering module optically coupled to the quantum memory module and configured to retrieve the quantum information therefrom; and an output configured to output the quantum information from the filtering module wherein the quantum memory module and filtering module are disposed within the outer shell and supported by the inner structural frame which attaches the filtering module to the quantum memory module such that the quantum memory device is portable.
A first network node having a data flow table identifying forwarding rules to be applied to incoming data packets; wherein the first network node is configured to allow for manipulation of the data flow table via control messages received via a control connection to a software defined network, SDN, controller; wherein the first network node is further configured to determine an occurrence of a network event, wherein the network event is that no control connection to the SDN controller is available or that the control connection to the SDN controller has failed; wherein the first network node determines that no control connection to the SDN controller is available or that the control connection to the SDN controller has failed, when a transmission path of the control connection to the SDN controller involves other network nodes, by using a failure detection protocol to detect a link layer failure, and wherein the link layer failure is determined by periodically issuing keepalive messages between connected ports of the first network node and neighboring network nodes, and when a number of expected keepalive messages of a neighboring network node over which the first network node sends control messages to the SDN controller are not received within a time frame a link layer failure is determined between the first network node and the neighboring network node; wherein the first network node is further configured: to establish a control connection to a second network node in response to determining that no control connection between the first network node and the SDN controller is available or that the control connection between the first network node and the SDN controller has failed; to exchange control messages with the second network node via the control connection; and to relay information from the first network node to the SDN controller via the established control connection to the second network node, the information related to the network event and comprising control messages of the first network node to the SDN controller. to establish a control connection to a second network node in response to determining that no control connection between the first network node and the SDN controller is available or that the control connection between the first network node and the SDN controller has failed; to exchange control messages with the second network node via the control connection; and to relay information from the first network node to the SDN controller via the established control connection to the second network node, the information related to the network event and comprising control messages of the first network node to the SDN controller.
Polyamide molding material, having the following composition: (a) 45-97.9% by weight of a copolyamide, wherein this is composed of at least one diamine selected from the group consisting of 1,6-hexanediamine, nonanediamine, and 1,10-decanediamine, and terephthalic acid, and at least one further polyamide-forming monomer selected from the group: dicarboxylic acid having 8 to 18 carbon atoms, lactam having 6 to 12 carbon atoms, amino acid having 6 to 12 carbon atoms, and mixtures thereof; (b) 2-10% by weight of at least one impact modifier; (c) 0.1-10% by weight of at least one viscosity modifier; and (d) 0-35% by weight of additives and/or admixture; wherein the components (a) to (d) add up in total to 100% by weight of the polyamide molding material. (a) 45-97.9% by weight of a copolyamide, wherein this is composed of at least one diamine selected from the group consisting of 1,6-hexanediamine, nonanediamine, and 1,10-decanediamine, and terephthalic acid, and at least one further polyamide-forming monomer selected from the group: dicarboxylic acid having 8 to 18 carbon atoms, lactam having 6 to 12 carbon atoms, amino acid having 6 to 12 carbon atoms, and mixtures thereof; at least one diamine selected from the group consisting of 1,6-hexanediamine, nonanediamine, and 1,10-decanediamine, and terephthalic acid, and at least one further polyamide-forming monomer selected from the group: dicarboxylic acid having 8 to 18 carbon atoms, lactam having 6 to 12 carbon atoms, amino acid having 6 to 12 carbon atoms, and mixtures thereof; (b) 2-10% by weight of at least one impact modifier; (c) 0.1-10% by weight of at least one viscosity modifier; and (d) 0-35% by weight of additives and/or admixture;