mhurhangee/ep-ind-claims huggingface dataset:
A heat source unit of a refrigeration apparatus, the heat source unit comprising: a heat source circuit having a compression element, a heat source heat exchanger, and a receiver, wherein the heat source circuit includes a gas passage that allows the inlet of the compression element to communicate with the receiver, and an on-off valve provided in the gas passage; and a heat source controller, characterized by the heat source controller being configured to determine, when the compression element is in a stopped state, whether a pressure in the receiver exceeds a predetermined first pressure, and to perform a first operation when the pressure in the receiver exceeds the predetermined first pressure, wherein the heat source controller is configured to allow an inlet of the compression element to communicate with the receiver, to open the on-off valve and to drive the compression element in the first operation. a heat source circuit having a compression element, a heat source heat exchanger, and a receiver, wherein the heat source circuit includes a gas passage that allows the inlet of the compression element to communicate with the receiver, and an on-off valve provided in the gas passage; and a heat source controller, characterized by the heat source controller being configured to determine, when the compression element is in a stopped state, whether a pressure in the receiver exceeds a predetermined first pressure, and to perform a first operation when the pressure in the receiver exceeds the predetermined first pressure, wherein the heat source controller is configured to allow an inlet of the compression element to communicate with the receiver, to open the on-off valve and to drive the compression element in the first operation.
Protection enclosure for an electrical apparatus, notably medium voltage, comprising: a wall provided with an orifice, a flap that can be displaced under the action of an overpressure inside the enclosure between a first position of blocking of the orifice to a second position of opening in which a passage of gas is permitted between the flap and the orifice, link means linking the flap to the wall of the enclosure, in which the orifice is produced, located at the periphery of the orifice, and keeping the flap in the first position of closure when the pressure inside the enclosure is below a predefined value, characterized in that the link means comprise rigid first means secured to the flap and translationally mobile from the first position to the second position relative to the enclosure and second means (32, 34) fixed to the enclosure and comprising at least one deformable element, that can be deformed when the pressure inside the enclosure is above said predefined value.
An industrial truck comprising a drive part and a load part, which comprises a height-adjustable load-bearing means, wherein the drive part comprises a battery-supplied, electrical drive and a tiller, which has a tiller head equipped with multiple operating elements (22, 24) and a display unit, wherein the display unit is designed to display a charge level of the battery during operation, characterized in that the tiller has a rest position, in which it is approximately vertical, wherein the display unit is arranged on the side pointing away from the load part.
A method of converting an energy consumption node, comprising: providing a guided surface wave receive structure configured to obtain electrical energy from a guided surface wave traveling along a terrestrial medium, the obtained electrical energy comprising alternating current at an operating frequency and a first voltage, the receive structure comprising: a charge terminal (T 1) elevated over the terrestrial medium, and a receiver network, coupled between the charge terminal (T 1) and the terrestrial medium, having a phase delay (Φ) that matches a wave tilt angle (Ψ) associated with the guided surface wave, the wave tilt angle (Ψ) based at least in part upon characteristics of the terrestrial medium in a vicinity of the receive structure; disconnecting a preexisting source of electrical energy from a distribution system; and coupling the distribution system to an output of the guided surface wave receive structure, the distribution system configured to distribute the obtained electrical energy to an electrical load via an AC voltage converter configured to convert the first voltage to a different voltage compatible with the electrical load and to maintain the different voltage within a particular voltage range at the operating frequency. providing a guided surface wave receive structure configured to obtain electrical energy from a guided surface wave traveling along a terrestrial medium, the obtained electrical energy comprising alternating current at an operating frequency and a first voltage, the receive structure comprising: a charge terminal (T 1) elevated over the terrestrial medium, and a receiver network, coupled between the charge terminal (T 1) and the terrestrial medium, having a phase delay (Φ) that matches a wave tilt angle (Ψ) associated with the guided surface wave, the wave tilt angle (Ψ) based at least in part upon characteristics of the terrestrial medium in a vicinity of the receive structure; a charge terminal (T 1) elevated over the terrestrial medium, and a receiver network, coupled between the charge terminal (T 1) and the terrestrial medium, having a phase delay (Φ) that matches a wave tilt angle (Ψ) associated with the guided surface wave, the wave tilt angle (Ψ) based at least in part upon characteristics of the terrestrial medium in a vicinity of the receive structure; disconnecting a preexisting source of electrical energy from a distribution system; and coupling the distribution system to an output of the guided surface wave receive structure, the distribution system configured to distribute the obtained electrical energy to an electrical load via an AC voltage converter configured to convert the first voltage to a different voltage compatible with the electrical load and to maintain the different voltage within a particular voltage range at the operating frequency.
Cosmetic composition for coating keratinous fibres of the emulsion type, comprising: - an aqueous phase, - at least one wax, and - an emulsifying system comprising: i) at least one anionic surfactant in the salt form chosen from C 16 -C 18 monoalkyl phosphate, ii) at least one cationic counterion, and iii) at least one basic amino acid, in which the total content of basic amino acid(s) and the total content of anionic surfactant(s) in the salt form are such that the ratio by weight of the basic amino acid(s) to the anionic surfactant(s) in the salt form is greater than or equal to 0.05. - an aqueous phase, - at least one wax, and - an emulsifying system comprising: i) at least one anionic surfactant in the salt form chosen from C 16 -C 18 monoalkyl phosphate, ii) at least one cationic counterion, and iii) at least one basic amino acid, i) at least one anionic surfactant in the salt form chosen from C 16 -C 18 monoalkyl phosphate, ii) at least one cationic counterion, and iii) at least one basic amino acid,
A test signal generator for providing a test signal comprising one or more sub-band signals each composed of a number of sinusoidal signals, each sinusoidal signal having an individual frequency and phase wherein each frequency is associated with a frequency index and the corresponding phase is an exponential function of the frequency index; the signal generator is configured to receive a desired crest factor value for each sub-band signal; determine an exponent, being the exponent of the frequency index in the exponential function, said exponent corresponding to the crest factor based on an a priori known relationship between crest factor and exponent; calculate a phase value for each sinusoidal signal using the exponential function and the previously determined exponent; generate the sinusoidal signals having the calculated phase values and superpose the sinusoidal signals associated with the sub-band signals to obtain the sub-band signal(s) and thus the test signal having the desired crest factor(s) in each sub-band, whereby the phases of the individual signals are maintained; and to output the test signal for further use. receive a desired crest factor value for each sub-band signal; determine an exponent, being the exponent of the frequency index in the exponential function, said exponent corresponding to the crest factor based on an a priori known relationship between crest factor and exponent; calculate a phase value for each sinusoidal signal using the exponential function and the previously determined exponent; generate the sinusoidal signals having the calculated phase values and superpose the sinusoidal signals associated with the sub-band signals to obtain the sub-band signal(s) and thus the test signal having the desired crest factor(s) in each sub-band, whereby the phases of the individual signals are maintained; and to output the test signal for further use.
An insert hose for cladding and retrofitting pipes and channels, in particular waste water channels, the insert hose having at least one, preferably a number of layers consisting of glass fibres that are soaked with a curable reaction compound, characterised in that the reaction compound is peroxide-free and can be cured by rays containing UV, that the thickness of the insert hose is more than 10 mm, and that by using a suitable coating on the glass fibres, the absorption coefficient alpha of the insert hose is reduced for the rays containing UV such that the peroxide-free reaction compound, and so the insert hose, can be fully hardened by the rays containing UV.
A lubrication system for a turbine engine, comprising: a lubricant source including a source outlet; a pump including a pump inlet and a pump outlet, the pump inlet fluidly coupled with the source outlet; a first turbine engine component including a first volume, the first volume fluidly coupled with the pump outlet; and a bypass circuit including a bypass inlet and a bypass outlet, the bypass inlet fluidly coupled with the pump outlet upstream of the first volume, characterised in that: the bypass outlet is fluidly coupled with the pump inlet downstream of the source outlet; and the lubrication system further comprises a second turbine engine component including a second volume, the second volume fluidly coupled with the pump inlet downstream of the bypass outlet. a lubricant source including a source outlet; a pump including a pump inlet and a pump outlet, the pump inlet fluidly coupled with the source outlet; a first turbine engine component including a first volume, the first volume fluidly coupled with the pump outlet; and a bypass circuit including a bypass inlet and a bypass outlet, the bypass inlet fluidly coupled with the pump outlet upstream of the first volume, characterised in that: the bypass outlet is fluidly coupled with the pump inlet downstream of the source outlet; and the lubrication system further comprises a second turbine engine component including a second volume, the second volume fluidly coupled with the pump inlet downstream of the bypass outlet. the bypass outlet is fluidly coupled with the pump inlet downstream of the source outlet; and the lubrication system further comprises a second turbine engine component including a second volume, the second volume fluidly coupled with the pump inlet downstream of the bypass outlet.
A multi-piece fan blade spacer for a gas turbine engine comprising: at least one lug (220; 320) comprising a platform portion (224; 324), a connection portion (226; 326) radially inward of the platform portion (224; 324), and a support (228; 328) connecting the platform portion (224; 324) to the connection portion (226; 326); and a plurality of platforms (210; 310), each of said platforms (210; 310) being connected to at least one axially adjacent platform portion (224; 324); characterised in that: each platform (210; 310) comprises an internal void (212; 312); and each platform portion (224; 324) includes at least one axially extending post (222; 322), the at least one axially extending post (222; 322) being received in a the internal void (212; 312) of an adjacent platform (210; 310). at least one lug (220; 320) comprising a platform portion (224; 324), a connection portion (226; 326) radially inward of the platform portion (224; 324), and a support (228; 328) connecting the platform portion (224; 324) to the connection portion (226; 326); and a plurality of platforms (210; 310), each of said platforms (210; 310) being connected to at least one axially adjacent platform portion (224; 324); characterised in that: each platform (210; 310) comprises an internal void (212; 312); and each platform portion (224; 324) includes at least one axially extending post (222; 322), the at least one axially extending post (222; 322) being received in a the internal void (212; 312) of an adjacent platform (210; 310). each platform (210; 310) comprises an internal void (212; 312); and each platform portion (224; 324) includes at least one axially extending post (222; 322), the at least one axially extending post (222; 322) being received in a the internal void (212; 312) of an adjacent platform (210; 310).
Device for carrying out a method for the production of plastic parts made from a pulverulent plastic material, comprising at least the successive method steps: - heating a moulding tool having a first moulding tool side and a second moulding tool side located opposite this, - applying a predetermined quantity of the pulverulent plastic material to the second moulding tool side, - fusing the pulverulent plastic material located on the second moulding tool side, - loading the plastic part or the plastic parts with a cooling agent on the side of the plastic part facing away from the moulding tool, - demoulding the plastic part formed from the fused and cooled plastic material, - drying the plastic part or the plastic parts; characterised by a drying apparatus for drying the plastic part or the plastic parts, - having a frame which bears a support that is intended for receiving the plastic part or the plastic parts, and - having nozzles that are able to move along the plastic part, said nozzles being able to be loaded with a drying agent. - heating a moulding tool having a first moulding tool side and a second moulding tool side located opposite this, - applying a predetermined quantity of the pulverulent plastic material to the second moulding tool side, - fusing the pulverulent plastic material located on the second moulding tool side, - loading the plastic part or the plastic parts with a cooling agent on the side of the plastic part facing away from the moulding tool, - demoulding the plastic part formed from the fused and cooled plastic material, - drying the plastic part or the plastic parts; - having a frame which bears a support that is intended for receiving the plastic part or the plastic parts, and - having nozzles that are able to move along the plastic part, said nozzles being able to be loaded with a drying agent.
Control method for operating a synchronous machine, the machine comprising an exciter (4, 5) connected to a synchronous generator (2, 3) and a controller for controlling the machine field excitation, characterised in that the method comprises - predefining a stable operation torque derivative range within which a stable operation of the machine occurs, - performing a torque measuring or calculating for the machine, - calculating the derivative of said torque, - determining whether the calculated torque derivative is within the predefined stable operation torque derivative range for the machine, and, - if the torque derivative is not within the predefined stable operation torque derivative range, modifying the machine field excitation to bring the torque derivative within the predefined stable operation torque derivative range. - predefining a stable operation torque derivative range within which a stable operation of the machine occurs, - performing a torque measuring or calculating for the machine, - calculating the derivative of said torque, - determining whether the calculated torque derivative is within the predefined stable operation torque derivative range for the machine, and, - if the torque derivative is not within the predefined stable operation torque derivative range, modifying the machine field excitation to bring the torque derivative within the predefined stable operation torque derivative range.
A scanning imaging system having an optical axis along the Z direction and comprising an imaging sensor comprising a 2D array of pixels in an orthogonal XY coordinate system, the Z direction is perpendicular to the Y direction, the 2D array of pixels comprising a first pixel line comprising a plurality of pixels (415, 416), wherein the first pixel line extends along the Y direction and is part of a first block (304, 405) of adjacent pixel lines, a second pixel line comprising a plurality of pixels (418, 419), wherein the second pixel line extends along the Y direction and is part of a second block (310, 404) of adjacent pixel lines, wherein each pixel consists of a photodiode and comprises read out lines (603, 604) along the X direction, wherein in an individual pixel the read out lines are elevated above the photodiode, a first non-photosensitive gap between the first and the second pixel blocks, wherein read out electronics (412, 413) of pixels of the first pixel line and of pixels of the second pixel line are positioned in the first non-photosensitive gap, wherein the imaging sensor is tilted around the Y axis as an axis of rotation.
A method for detecting a cancer(s), which is applied to a sample separated from a living body and comprises measuring an expression of calmegin; wherein the cancer is at least one selected from the group consisting of brain tumor; squamous cell carcinomas of head, neck, lung, uterus and esophagus; melanoma; adenocarcinomas of lung and uterus; renal cancer; malignant mixed tumor; hepatocellular carcinoma; basal cell carcinoma; acanthomatous epulis; intraoral tumor; perianal adenocarcinoma; anal sac tumor; anal sac apocrine carcinoma; Sertoli cell tumor; vulva cancer; sebaceous adenocarcinoma; sebaceous epithelioma; sebaceous adenoma; sweat gland carcinoma; intranasal adenocarcinoma; nasal adenocarcinoma; thyroid cancer; colon cancer; bronchial adenocarcinoma; adenocarcinoma; ductal carcinoma; mammary adenocarcinoma; combined mammary adenocarcinoma; mammary gland malignant mixed tumor; intraductal papillary adenocarcinoma; fibrosarcoma; hemangiopericytoma; osteosarcoma; chondrosarcoma; soft tissue sarcoma; histiocytic sarcoma; myxosarcoma; undifferentiated sarcoma; lung cancer; mastocytoma; cutaneous leiomyoma; intra-abdominal leiomyoma; leiomyoma; chronic lymphocytic leukemia; lymphoma; gastrointestinal lymphoma; digestive organ lymphoma; small cell or medium cell lymphoma; adrenomedullary tumor; granulosa cell tumor; pheochromocytoma; bladder cancer (transitional cell carcinoma); suppurative inflammation; intra-abdominal liver tumor; liver cancer; plasmacytoma; malignant hemangiopericytoma; angiosarcoma; anal sac adenocarcinoma; oral cancer; metastatic malignant melanoma; amelanotic malignant melanoma; cutaneous malignant melanoma; malignant myoepithelioma; malignant seminoma; seminoma; adenocarcinoma of the large intestine; gastric adenocarcinoma; low-grade sebaceous carcinoma; ceruminous adenocarcinoma; apocrine carcinoma; poorly differentiated apocrine sweat gland carcinoma; malignant fibrous histiocytoma; multiple myeloma; mesenchymal malignant tumor; liposarcoma; osteosarcoma; sarcoma of unknown origin; soft part sarcoma (spindle cell tumor); poorly differentiated sarcoma; synovial sarcoma; angiosarcoma; metastatic malignant epithelioma; tubular mammary adenocarcinoma; mammary ductal carcinoma; inflammatory breast cancer; germinoma; leukemia; invasive trichoepithelioma; medium cell lymphoma; multicentric lymphoma; osteosarcoma (mammary gland); mastocytoma (Patnaik II type); mastocytoma (Grade II); and leiomyosarcoma.
A filter apparatus for filtering liquid from a gas, comprising: a housing (210, 212) having a gas inlet and a gas outlet; a first filter media disposed in the housing; a second filter media disposed in the housing; a first collection basin disposed in a flow path between the first filter media and the second filter media, and a second collection basin defined by the housing, separate from the first collection basin, wherein a path is defined for enabling the gas to flow from the gas inlet, through the first filter media, past the first collection basin, through the second filter media, and to the gas outlet, and wherein droplets of liquid collected by the second filter media may fall via gravity into the second collection basin. a housing (210, 212) having a gas inlet and a gas outlet; a first filter media disposed in the housing; a second filter media disposed in the housing; a first collection basin disposed in a flow path between the first filter media and the second filter media, and a second collection basin defined by the housing, separate from the first collection basin, wherein a path is defined for enabling the gas to flow from the gas inlet, through the first filter media, past the first collection basin, through the second filter media, and to the gas outlet, and wherein droplets of liquid collected by the second filter media may fall via gravity into the second collection basin.
A signal detection circuit that detects at least one of an amplitude, a phase, and a frequency signal based on an input signal and reference signals comprising a sine function and a cosine function that are at the same frequency as that of the input signal, the signal detection circuit comprising: a first oscillation circuit (23; 33) that generates the reference signals; a complex signal generation circuit (24, 26) that generates a complex signal from the input signal and the reference signals; a vector operation circuit that calculates an argument of the complex signal by performing a vector operation; and a subtracting phase comparator that compares the argument with a phase of the reference signals by calculating a difference between the argument and the phase of the reference signals, wherein the complex signal generation circuit (24, 26) includes: a multiplication circuit that multiplies the input signal by the sine function and the cosine function; and a high-pass filter that removes a DC component from a signal output from the multiplication circuit. a first oscillation circuit (23; 33) that generates the reference signals; a complex signal generation circuit (24, 26) that generates a complex signal from the input signal and the reference signals; a vector operation circuit that calculates an argument of the complex signal by performing a vector operation; and a subtracting phase comparator that compares the argument with a phase of the reference signals by calculating a difference between the argument and the phase of the reference signals, wherein the complex signal generation circuit (24, 26) includes: a multiplication circuit that multiplies the input signal by the sine function and the cosine function; and a high-pass filter that removes a DC component from a signal output from the multiplication circuit. a multiplication circuit that multiplies the input signal by the sine function and the cosine function; and a high-pass filter that removes a DC component from a signal output from the multiplication circuit.
A composition or kit of parts for use in the treatment of cancer, comprising a second anti-tumor compound, and an ADAM12 inhibitor which is a monoclonal antibody against ADAM12 which has Antibody-Dependent Cellular Cytotoxicity (ADCC) activity or Complement-Dependent Cytotoxicity activity and binds ADAM12 on the surface of cells, wherein the composition or kit of parts is administered to a patient in which treatment with a first anti-tumor compound or therapy was measured as lacking effectiveness.