mhurhangee/ep-ind-claims huggingface dataset:
A storage battery control device, comprising: a battery information acquiring unit for acquiring information on a storage battery; a first allowable current calculating unit for calculating a first allowable current of the storage battery in accordance with a rated value of a component through which a current flows by charging or discharging of the storage battery; and a second allowable current calculating unit for calculating a second allowable current of the storage battery in accordance with a charging state of the storage battery on the basis of the information acquired by the battery information acquiring unit; characterized in further comprising a third allowable current calculating unit for calculating a third allowable current of the storage battery in accordance with a deterioration state of the storage battery on the basis of the information acquired by the battery information acquiring unit. a battery information acquiring unit for acquiring information on a storage battery; a first allowable current calculating unit for calculating a first allowable current of the storage battery in accordance with a rated value of a component through which a current flows by charging or discharging of the storage battery; and a second allowable current calculating unit for calculating a second allowable current of the storage battery in accordance with a charging state of the storage battery on the basis of the information acquired by the battery information acquiring unit;
A cooling system for an electronic rack, the cooling system comprising: a primary condenser; a primary supply line and a primary return line that couples the primary condenser to a cold plate (21a,..., 21n) that is arranged to mount on an IT component of a piece of information technology equipment that is disposed within the electronic rack to create a primary heat-transfer loop in which the primary condenser is configured to 1) supply, via the primary supply line, liquid coolant to the cold plate (21a,..., 21n) and 2) receive, via the primary return line, vapor that is produced by the cold plate (21a,..., 21n) when heat generated by the IT component is transferred into the liquid coolant by the cold plate (21a,..., 21n); a secondary condenser; a secondary supply line that couples the secondary condenser to the primary supply line; a secondary return line that couples the secondary condenser to the primary return line; and a primary valve that is coupled to the secondary return line, the cooling system is characterized in that wherein the primary valve is configured to at least partially open in response to a pressure of the vapor exceeding a pressure threshold, wherein, in response to the primary valve at least partially opening, a secondary heat-transfer loop is created in which the secondary condenser receives, via the secondary return line, at least a portion of the vapor and condenses the at least the portion of the vapor back into liquid coolant that is supplied, via the secondary supply line, to the primary supply line. a primary condenser; a primary supply line and a primary return line that couples the primary condenser to a cold plate (21a,..., 21n) that is arranged to mount on an IT component of a piece of information technology equipment that is disposed within the electronic rack to create a primary heat-transfer loop in which the primary condenser is configured to 1) supply, via the primary supply line, liquid coolant to the cold plate (21a,..., 21n) and 2) receive, via the primary return line, vapor that is produced by the cold plate (21a,..., 21n) when heat generated by the IT component is transferred into the liquid coolant by the cold plate (21a,..., 21n); a secondary condenser; a secondary supply line that couples the secondary condenser to the primary supply line; a secondary return line that couples the secondary condenser to the primary return line; and a primary valve that is coupled to the secondary return line, the cooling system is characterized in that wherein the primary valve is configured to at least partially open in response to a pressure of the vapor exceeding a pressure threshold, wherein, in response to the primary valve at least partially opening, a secondary heat-transfer loop is created in which the secondary condenser receives, via the secondary return line, at least a portion of the vapor and condenses the at least the portion of the vapor back into liquid coolant that is supplied, via the secondary supply line, to the primary supply line.
An alloy for use in an absorbable medical device, the alloy comprising: between 1.0-5.0 wt.% lithium; between 0.2-2.0 wt.% zinc; between 0.1-0.5 wt.% calcium; between 0.1-0.8 wt.% manganese; and balance magnesium and inevitable impurities. between 1.0-5.0 wt.% lithium; between 0.2-2.0 wt.% zinc; between 0.1-0.5 wt.% calcium; between 0.1-0.8 wt.% manganese; and balance magnesium and inevitable impurities.
A method comprising: sending, by a low power node, an indicator to a target low power router, wherein the indicator at least represents a request to operate the low power node at the target low power router with a prior context used at a source low power router, wherein the indicator causes the target low power router to request the prior context used at the source low power router from the source low power router; and receiving, by the low power node, a message in response to the indicator, wherein the message at least indicates whether the low power node can operate at the target low power router with a same context that corresponds to the prior context used at the source low power router. sending, by a low power node, an indicator to a target low power router, wherein the indicator at least represents a request to operate the low power node at the target low power router with a prior context used at a source low power router, wherein the indicator causes the target low power router to request the prior context used at the source low power router from the source low power router; and receiving, by the low power node, a message in response to the indicator, wherein the message at least indicates whether the low power node can operate at the target low power router with a same context that corresponds to the prior context used at the source low power router.
Process for making dentures, in which first of all an impression of the maxilla and of the mandible with the teeth is made and is then brought to the dental technician in a device referred to as an articulator for the simulation of mandible movements on carriers that support the maxilla and mandible impressions respectively, where the denture under movement either of the mandible impression or usually of the maxilla impression is formed around articular cavity duplicates similar to the patient's mandibular and maxillary joints determined through movement of the patient's mandible and made from this and applied as articulator joints and completed taking account usually of the mandible impression, brought back to the dentist, inserted in the patient's mouth and then reworked by the dentist, characterised in that the movements carried out by the patient's jaw joints guided through a supporting pin, which is held in the maxilla by means of maxilla plate, and via hemispheres assigned to a mandible plate, which are arranged to form a triangle at a distance to each other and with the supporting pin in the axis of supporting pin/jaw joint, under decoupling of the patient's teeth, are transmitted intraorally into a plastic material embedded in a registration carrier assigned to the maxilla plate as articular cavity duplicate and that using these articular cavity duplicates extra orally in accordance with the pantograph principle additional articular cavity duplicates can be made from each jaw joint and used in the articulator as articulator joint.
A vehicle for sewer cleaning with the arm comprising a flushing hose suppliable with pressurized water and insertable in the sewer and further a suction hose which is lowerable into the sewer and suppliable with induced draft, with the flushing hose and the suction hose being provided on the side of the vehicle, and with a container for the water required during sewer cleaning and/or the sludge accruing during sewer cleaning, and with an arm received on the container, which is raisable and lowerable and/or rotatable around a vertical axis for manipulating the flushing hose and/or the suction hose, with at least one additional work tool being provided to perform sewer works going beyond sewer cleaning and which may be manipulated by the arm, wherein the additional work tool is connected with the arm only when required and is otherwise only loosely placed on an associated holding device provided on the vehicle side, with a coupling device being provided by which the additional work device is connectable with the arm, with the arm being suitable to remove the additional work device from the associated holding device, to manipulate it according to its intended use and to subsequently bring it back to the holding device.
A three-dimensional printing apparatus comprising: a body; a rotation module disposed on the body; a tank disposed on the rotation module to rotate relatively to the body, the tank being configured to contain a forming material in liquid; an elevating module disposed on the body; a forming platform disposed on the elevating module to be elevated and lowered relatively to the tank; a curing module disposed in the body and located under the tank; and a control module electrically connected to the rotation module, the elevating module, and the curing module, wherein the control module is configured to drive the forming platform to dip into the forming material in liquid in the tank and to drive the curing module to cure the forming material in liquid between the forming platform and an inner bottom of the tank to form a solidification layer, and characterized in that the control module is configured to drive the forming platform through the elevating module to rise relatively to the tank and simultaneously to drive the tank to rotate in a horizontal plane through the rotation module such that the solidification layer is peeled off the inner bottom of the tank and is formed on the forming platform. a body; a rotation module disposed on the body; a tank disposed on the rotation module to rotate relatively to the body, the tank being configured to contain a forming material in liquid; an elevating module disposed on the body; a forming platform disposed on the elevating module to be elevated and lowered relatively to the tank; a curing module disposed in the body and located under the tank; and a control module electrically connected to the rotation module, the elevating module, and the curing module, wherein the control module is configured to drive the forming platform to dip into the forming material in liquid in the tank and to drive the curing module to cure the forming material in liquid between the forming platform and an inner bottom of the tank to form a solidification layer, and characterized in that the control module is configured to drive the forming platform through the elevating module to rise relatively to the tank and simultaneously to drive the tank to rotate in a horizontal plane through the rotation module such that the solidification layer is peeled off the inner bottom of the tank and is formed on the forming platform.
A method of avoiding edgewise vibrations during a non-operational period of a wind turbine, the method comprising: defining a non-operational period for a wind turbine arranged at a specific site; determining expected wind conditions at the specific site during the non-operational period; defining a plurality of potential yaw orientations for the wind turbine; determining the relative probability of edgewise vibrations occurring during the non-operational period for each potential yaw orientation based upon the expected wind conditions during the non-operational period; determining one or more preferred yaw orientations, which are the yaw orientations in which the probability of edgewise vibrations occurring is lowest; and arranging the wind turbine in one of the preferred yaw orientations during the non-operational period. defining a non-operational period for a wind turbine arranged at a specific site; determining expected wind conditions at the specific site during the non-operational period; defining a plurality of potential yaw orientations for the wind turbine; determining the relative probability of edgewise vibrations occurring during the non-operational period for each potential yaw orientation based upon the expected wind conditions during the non-operational period; determining one or more preferred yaw orientations, which are the yaw orientations in which the probability of edgewise vibrations occurring is lowest; and arranging the wind turbine in one of the preferred yaw orientations during the non-operational period.
Loudspeaker comprising a housing and a plurality of sound transducers (22,30,40) arranged inside said housing, where the housing has two sides (11,12) arranged on either side of a x-y plane with a mutual distance between said sides (11,12) measured along a z-axis orthogonal to the x-y plane, and a front facing side and a rear facing side, and a top and a bottom, wherein a. a first sound transducer is arranged inside a first cavity inside said loudspeaker housing, where said first sound transducer comprises a membrane, where said first cavity has a narrow first slit in the y-direction provided in the rear facing side, where said first slit has a width z1 in the z-direction, and a length y1 in the y-direction where the length y1 in the y-direction is larger than the width z1 in the z-direction; characterised in that b. a second sound transducer is arranged inside a second cavity inside said loudspeaker housing, separate from said first cavity, where said second sound transducer comprises a membrane and where said second cavity is provided with a narrow second slit in the y-direction provided in the front facing side, where said second slit has a width z2 in the z-direction, and a length y2 in the y-direction, where the length y2 in the y-direction is larger than the width z2 in the z-direction. a. a first sound transducer is arranged inside a first cavity inside said loudspeaker housing, where said first sound transducer comprises a membrane, where said first cavity has a narrow first slit in the y-direction provided in the rear facing side, where said first slit has a width z1 in the z-direction, and a length y1 in the y-direction where the length y1 in the y-direction is larger than the width z1 in the z-direction; characterised in that b. a second sound transducer is arranged inside a second cavity inside said loudspeaker housing, separate from said first cavity, where said second sound transducer comprises a membrane and where said second cavity is provided with a narrow second slit in the y-direction provided in the front facing side, where said second slit has a width z2 in the z-direction, and a length y2 in the y-direction, where the length y2 in the y-direction is larger than the width z2 in the z-direction.
A truck or tractor vehicle, comprising: a frame having a longitudinal centerline; an operator cab mounted relative to the frame via a cab suspension, the cab having a longitudinal centerline; the cab suspension comprising a front suspension and a rear suspension, the rear suspension comprising an adjustable panhard bar attached at a first end to the cab and attached at a second end to the frame, the adjustable panhard bar being adjustable in length to position the longitudinal centerline of the cab at a desired angle relative to the longitudinal centerline of the frame. a frame having a longitudinal centerline; an operator cab mounted relative to the frame via a cab suspension, the cab having a longitudinal centerline; the cab suspension comprising a front suspension and a rear suspension, the rear suspension comprising an adjustable panhard bar attached at a first end to the cab and attached at a second end to the frame, the adjustable panhard bar being adjustable in length to position the longitudinal centerline of the cab at a desired angle relative to the longitudinal centerline of the frame.
Piezoelectric rotary drive for a shaft, comprising at least one piezoelectric actuator, an adjustable and/or deformable frame which has a coupling section that can be coupled to said shaft in a force-fit manner in order to accomplish a stick-slip drive, and at least one loading means which is designed to apply a preloading force to said coupling section and/or said actuator and/or said shaft, characterized in that said loading means is designed as a leaf spring which in the relaxed state extends substantially in a plane, preferably along a straight line.
An apparatus for determining an optimal route of a maritime ship, wherein the maritime ship is to depart at a predetermined departure location, wherein the maritime ship is to arrive at a predetermined destination location, and wherein the maritime ship is using propulsion to move ahead, the apparatus comprising: a communication interface configured to receive a predetermined ship performance model, predetermined bathymetry information, and predetermined metocean information over a communication network; a database configured to store the predetermined ship performance model, the predetermined bathymetry information, the predetermined metocean information, and at least one optimization constraint parameter, wherein the at least one optimization constraint parameter comprises a predetermined constant shaft power of the propel shaft of the maritime ship; and a processor configured to execute a multi-objective route optimization algorithm based on the predetermined departure location, the predetermined destination location, the predetermined ship performance model, the predetermined bathymetry information, the predetermined metocean information, and the at least one optimization constraint parameter in order to obtain the optimal route of the maritime ship, characterised in that an increased resistance experienced by the ship from water based on a restriction of the water flow under the ship due to insufficient space between the ship's hull and a seabed is considered as one parameter in the optimization. a communication interface configured to receive a predetermined ship performance model, predetermined bathymetry information, and predetermined metocean information over a communication network; a database configured to store the predetermined ship performance model, the predetermined bathymetry information, the predetermined metocean information, and at least one optimization constraint parameter, wherein the at least one optimization constraint parameter comprises a predetermined constant shaft power of the propel shaft of the maritime ship; and a processor configured to execute a multi-objective route optimization algorithm based on the predetermined departure location, the predetermined destination location, the predetermined ship performance model, the predetermined bathymetry information, the predetermined metocean information, and the at least one optimization constraint parameter in order to obtain the optimal route of the maritime ship, characterised in that an increased resistance experienced by the ship from water based on a restriction of the water flow under the ship due to insufficient space between the ship's hull and a seabed is considered as one parameter in the optimization.
Electrostatic separator, in particular for an exhaust gas line of a biomass-fired heating system, with a flow duct having a duct wall and having a duct interior, through which a particle-containing exhaust gas flows in a flow direction, with a charging electrode, extending essentially in the flow direction in the duct interior, for generating an electrical field between the charging electrode and the duct wall, with a high-voltage leadthrough which is framed by an insulator, and with a particle repulsion means which is heatable by means of a heating element and which prevents particles from being deposited on the high-voltage leadthrough and insulator, the high-voltage leadthrough and the charging electrode being formed at least partially as a common component, characterized in that the charging electrode is provided in a subregion with electrical insulation, an upstream subregion of the charging electrode being electrically insulated and a downstream subregion not being insulated, and the location of electrical particle charging being displaced downstream with respect to the insulator.
A synthetic resin container with high barrier properties: comprising a base layer composed of a polyethylene terephthalate and a barrier layer with lower gas permeability than that of the base layer, characterised in that the barrier layer is composed of synthetic resin with peak crystallization temperature of 150°C or more, and in that the barrier layer is a synthetic resin containing an amorphous polyamide having meta-xylene isophthalamide structure and hexamethylene isophthalamide structure and the content rate of the amorphous polyamide in the barrier layer is in the range of 15 weight percentage or more and 25 weight percentage or less, and in that the peak crystallization temperature is obtained after heating from 20°C to 270°C at a rate of temperature rise of 10°C/min and maintaining the heated state for five minutes, and then, once icing to 20°C and again heating from 20°C to 270°C at a rate of temperature rise of 10°C/min.
A hydrogen absorbing alloy containing a principal phase having a Ce 2 Ni 7 structure, wherein a content of a phase having a MgCu 2 type crystal structure is not higher than 10% by volume including 0% by volume in the hydrogen absorbing alloy, the hydrogen absorbing alloy having a composition represented by general formula given below: R 1-a-b Mg a T b Ni z-x-y-α M1 x M2 y Mn α where R is at least one element selected from rare earth elements, said rare earth elements including Yttrium, T is at least one element selected from the group consisting of Ca, Ti, Zr and Hf, M1 is at least one element selected from the group consisting of Co and Fe, M2 is at least one element selected from the group consisting of Al, Ga, Zn, Sn, Cu, Si, B, Nb, W, Mo, V, Cr, Ta, Li, P and S, the atomic ratios of a, b, x, y, α and z are respectively satisfy conditions of: 0.15 ≦ a ≦ 0.37, 0 ≦ b ≦ 0.1, 0.53 ≦ (1-a-b) ≦ 0.85, 0 ≦ x ≦ 1.3, 0 ≦ y ≦ 0.5, 0 ≦ α ≦ 0.135 and 3 ≦ z ≦4.2.
A refrigerator comprising: a casing including a storage compartment; a door attached to the casing to expose or cover the storage compartment; a hinge connecting the door to the casing and supporting the door so that the door is openable and closable; a non-conductive hinge cover detachably attached to the casing, the hinge cover covering the hinge, characterised by further comprising a wireless adapter disposed on the hinge cover and detachably mounted to the casing along with the hinge cover, the wireless adapter including an antenna unit configured to transmit and receive radio waves. a casing including a storage compartment; a door attached to the casing to expose or cover the storage compartment; a hinge connecting the door to the casing and supporting the door so that the door is openable and closable; a non-conductive hinge cover detachably attached to the casing, the hinge cover covering the hinge, characterised by further comprising a wireless adapter disposed on the hinge cover and detachably mounted to the casing along with the hinge cover, the wireless adapter including an antenna unit configured to transmit and receive radio waves.