mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: generating, for a shred to execute without operating system control on a first thread unit that is not visible to the operating system, an operating system -visible surrogate thread to run on an operating system-visible second thread unit; executing an instruction of an operating system -visible main thread while the shred is concurrently executing on the first thread unit; characterised in that the method further comprises: causing the surrogate thread to impersonate the shred to the operating system during handling of an exception in order to request an operating-system service on behalf of the thread; wherein said impersonating further comprises saving the surrogate thread's current state, copying the shred's current control and state information, and requesting the operating-system service using the shred's current state information. generating, for a shred to execute without operating system control on a first thread unit that is not visible to the operating system, an operating system -visible surrogate thread to run on an operating system-visible second thread unit; executing an instruction of an operating system -visible main thread while the shred is concurrently executing on the first thread unit; characterised in that the method further comprises: causing the surrogate thread to impersonate the shred to the operating system during handling of an exception in order to request an operating-system service on behalf of the thread; wherein said impersonating further comprises saving the surrogate thread's current state, copying the shred's current control and state information, and requesting the operating-system service using the shred's current state information. causing the surrogate thread to impersonate the shred to the operating system during handling of an exception in order to request an operating-system service on behalf of the thread; wherein said impersonating further comprises saving the surrogate thread's current state, copying the shred's current control and state information, and requesting the operating-system service using the shred's current state information.
A compressor comprising: a casing forming a sealed space; a cylinder disposed in the casing and forming a side portion of boundary defining a compression space in which refrigerant is sucked and compressed; a piston moving linearly in the cylinder to compress the refrigerant and forming a rear portion of the boundary; a frame disposed in the casing and supporting the cylinder; and a discharge valve assembly forming a front portion of the boundary and configured to be opened when refrigerant in the compression space is compressed; characterized by a discharge cover assembly disposed to cover at least partially a front side of the frame and forming a space into which the refrigerant in the compression space is discharged, wherein a gas layer is formed between the discharge cover assembly and the frame. a casing forming a sealed space; a cylinder disposed in the casing and forming a side portion of boundary defining a compression space in which refrigerant is sucked and compressed; a piston moving linearly in the cylinder to compress the refrigerant and forming a rear portion of the boundary; a frame disposed in the casing and supporting the cylinder; and a discharge valve assembly forming a front portion of the boundary and configured to be opened when refrigerant in the compression space is compressed; characterized by a discharge cover assembly disposed to cover at least partially a front side of the frame and forming a space into which the refrigerant in the compression space is discharged, wherein a gas layer is formed between the discharge cover assembly and the frame.
A method of fabricating a micromachined device having a cap, the method comprising: fabricating a micromachined element (74, 76) on a substrate where the fabrication includes forming on said substrate conductors (20,20') that, in the completed device function to make electrical interconnections between the micromachined device inside the cap and external circuits; forming an insulating layer over the conductors; forming metallic anchors (42, 44) on the insulating layer, the anchors serving to engage a wall of the cap in the completed device; depositing a device sacrificial support layer; forming features of the micromachined element on the device sacraficial support layer such that the features are supported by the device sacrificial support layer; masking the device sacrificial layer to form holes through the device sacrificial layer to expose the anchors; fabricating a cap sacrificial support layer over said micromachined element and the anchors; masking the cap sacrificial support layer and etching the sacrificial cap support layer to reach the metallic anchors; forming a cap structure in and on said sacrificial layers by depositing gold to form a wall and a top; and removing the sacrificial layers within said cap structure to release said micromachined element leaving a cap integrated with the device. fabricating a micromachined element (74, 76) on a substrate where the fabrication includes forming on said substrate conductors (20,20') that, in the completed device function to make electrical interconnections between the micromachined device inside the cap and external circuits; forming an insulating layer over the conductors; forming metallic anchors (42, 44) on the insulating layer, the anchors serving to engage a wall of the cap in the completed device; depositing a device sacrificial support layer; forming features of the micromachined element on the device sacraficial support layer such that the features are supported by the device sacrificial support layer; masking the device sacrificial layer to form holes through the device sacrificial layer to expose the anchors; fabricating a cap sacrificial support layer over said micromachined element and the anchors; masking the cap sacrificial support layer and etching the sacrificial cap support layer to reach the metallic anchors; forming a cap structure in and on said sacrificial layers by depositing gold to form a wall and a top; and removing the sacrificial layers within said cap structure to release said micromachined element leaving a cap integrated with the device.
A switching regulator having a normal mode and a Burst mode comprising: a switching circuit; means for producing a Burst Mode control signal (WAKE/SLEEP) to alternatively put the switching regulator in SLEEP or WAKE states; means (413, 415, 417) for estimating the amplitude of a load current being supplied by the switching regulator to a load coupled to an output of the switching regulator; means for producing a first regulator control signal, the control signal indicating whether the estimated amplitude of a load current is smaller than a threshold current level; the switching regulator being characterised in that it further comprises: a comparison circuit to produce a second regulator control signal based on comparison between a voltage at an output of the regulator and an output overshoot threshold; and a one-shot timer receiving at its input the Burst Mode control signal (WAKE/SLEEP) that activates the one-shot timer, the one-shot timer operative to selectively transmit the second regulator control signal during a period of time following the regulator entering the WAKE state, means (435, 409) for producing the control signal for the switching circuit from a logical combination of the first regulator control signal and the selectively transmitted second regulator control signal. a switching circuit; means for producing a Burst Mode control signal (WAKE/SLEEP) to alternatively put the switching regulator in SLEEP or WAKE states; means (413, 415, 417) for estimating the amplitude of a load current being supplied by the switching regulator to a load coupled to an output of the switching regulator; means for producing a first regulator control signal, the control signal indicating whether the estimated amplitude of a load current is smaller than a threshold current level; the switching regulator being characterised in that it further comprises: a comparison circuit to produce a second regulator control signal based on comparison between a voltage at an output of the regulator and an output overshoot threshold; and a one-shot timer receiving at its input the Burst Mode control signal (WAKE/SLEEP) that activates the one-shot timer, the one-shot timer operative to selectively transmit the second regulator control signal during a period of time following the regulator entering the WAKE state, a comparison circuit to produce a second regulator control signal based on comparison between a voltage at an output of the regulator and an output overshoot threshold; and a one-shot timer receiving at its input the Burst Mode control signal (WAKE/SLEEP) that activates the one-shot timer, the one-shot timer operative to selectively transmit the second regulator control signal during a period of time following the regulator entering the WAKE state,
A double mechanical seal comprising two pairs of seal rings (18, 28; 24, 38) having slide or seal surfaces, a first pair being formed of a primary stationary seal ring (28; 128) and a primary rotary seal ring (18; 118), a second pair being formed of a secondary stationary seal ring (38; 138) and a secondary rotary seal ring (24; 124), and at least one spring (42; 142) arranged to push, when in use, the primary and the secondary stationary seal rings (28, 128; 38, 138) in opposite directions against the primary and secondary rotary seal rings (18, 118; 24, 124); the primary stationary seal ring (28, 128) comprising a slide ring (44, 144) and a primary carrier ring (46, 146, 246, 346, 446), the primary carrier ring (46, 146, 246, 346, 446) having a first axial end (48, 148) with a seat for the slide ring (44,144) and a second axial end (50, 150) with a rim (202, 302, 402) opposite the first axial end (48, 148), and the secondary stationary seal ring (38; 138) comprising a slide ring and a secondary carrier ring, the secondary carrier ring having an inlet recess or opening and an outlet recess or opening for a barrier fluid, characterized in that the primary carrier ring (46, 146, 246, 346, 446) has at least one in an axial direction recessed and in circumferential direction oblong section (60, 62, 160, 162) or at least one in circumferential direction oblong opening (204, 304, 404), and that the inlet and outlet recesses or openings (94, 96) in the secondary carrier ring are arranged, when in use, in radial flow communication with the at least one section (60, 62, 160, 162) or oblong opening (204, 304, 404).
A method being performed by one or more computing devices including at least one processor, the method for securely storing content in the cloud, wherein the content is encrypted using a symmetric key, the symmetric key being generated outside the cloud, the method comprising: providing one or more processors having secure enclave capability, each processor having a processor identifier associated therewith; receiving a set of the processor identifiers, each processor identifier of the set being associated with a processor of the one or more processors and having been selected for storing content; and providing a processor-specific public key corresponding to each processor identified by the set of processor identifiers received, wherein each processor includes a private key corresponding to the processor-specific public key, wherein each processor is constructed such that content encrypted with the public key can only be decrypted within the secure enclave of the respective processor; the method further comprising: creating an array whose entries include at least one processor identifier of the set of processor identifiers and the symmetric key encrypted with the corresponding processor-specific public key, wherein the processor identifier is used to securely decrypt the symmetric key and then use the decrypted symmetric key to decrypt the content into the secure enclave. providing one or more processors having secure enclave capability, each processor having a processor identifier associated therewith; receiving a set of the processor identifiers, each processor identifier of the set being associated with a processor of the one or more processors and having been selected for storing content; and providing a processor-specific public key corresponding to each processor identified by the set of processor identifiers received, wherein each processor includes a private key corresponding to the processor-specific public key, wherein each processor is constructed such that content encrypted with the public key can only be decrypted within the secure enclave of the respective processor; the method further comprising: creating an array whose entries include at least one processor identifier of the set of processor identifiers and the symmetric key encrypted with the corresponding processor-specific public key, wherein the processor identifier is used to securely decrypt the symmetric key and then use the decrypted symmetric key to decrypt the content into the secure enclave.
A machine gun comprising a feed channel comprising a main slip surface for a belt of ammunition items, lateral surfaces (8, 23) guiding the belt of ammunition items in use, and holding surfaces (25, 29) for the belt positioned at the upper edge of the lateral surfaces (8, 23), said holding surfaces (25, 29) facing the slip surface and said holding surfaces (29, 25) being open so as to allow the introduction of the belt of ammunition items, the holding surfaces being narrow and elastic, allowing a "forceful" introduction of the belt or the holding surfaces (25, 29) of the belt belonging to runners (6, 7) arranged along the upper edges of the lateral surfaces (8, 23) of the feed channel, these runners (6, 7) being held in the holding position by springs and having an inclined upper surface (27, 28) allowing placement of the belt of ammunition items by simple pressing thereof against the inclined surface (27, 28) of the runner (6, 7).
A weight checking apparatus for checking a weight of a check object, comprising: a measuring portion including a conveying portion for conveying a check object and measuring the weight of said check object conveyed by the conveying portion; characterized by at least one rail-like member extending along a conveying direction of said check object, onto which said measuring portion is mounted so that a position thereof is capable of being changed, wherein: said at least one rail-like member is composed of a plurality of the rail-like members disposed in parallel with each other; and at least a part of said measuring portion is positioned between said plurality of the rail-like members, the weight checking further comprising a processing portion including a conveying portion for conveying said check object and performing a predetermined processing on said check object, wherein said processing portion is mounted to said at least one rail-like member so that said conveying portion thereof is disposed adjacent to said conveying portion of said measuring portion along said conveying direction, and wherein said processing portion is mounted to said at least one rail-like member so that a position thereof is capable of being changed. a measuring portion including a conveying portion for conveying a check object and measuring the weight of said check object conveyed by the conveying portion; characterized by at least one rail-like member extending along a conveying direction of said check object, onto which said measuring portion is mounted so that a position thereof is capable of being changed, wherein: said at least one rail-like member is composed of a plurality of the rail-like members disposed in parallel with each other; and at least a part of said measuring portion is positioned between said plurality of the rail-like members, the weight checking further comprising a processing portion including a conveying portion for conveying said check object and performing a predetermined processing on said check object, wherein said processing portion is mounted to said at least one rail-like member so that said conveying portion thereof is disposed adjacent to said conveying portion of said measuring portion along said conveying direction, and wherein said processing portion is mounted to said at least one rail-like member so that a position thereof is capable of being changed. said at least one rail-like member is composed of a plurality of the rail-like members disposed in parallel with each other; and at least a part of said measuring portion is positioned between said plurality of the rail-like members, the weight checking further comprising a processing portion including a conveying portion for conveying said check object and performing a predetermined processing on said check object, wherein said processing portion is mounted to said at least one rail-like member so that said conveying portion thereof is disposed adjacent to said conveying portion of said measuring portion along said conveying direction, and wherein said processing portion is mounted to said at least one rail-like member so that a position thereof is capable of being changed.
A gloss level adjustment method for adjusting a gloss level of an image which is formed by an electrophotographic image forming apparatus, comprising: acquiring a predefined gloss level of the image; forming an image on a recording medium by using a color toner containing a release agent; applying an adjustment toner containing the release agent less than the color toner to the surface of the image on the recording medium, wherein applying the adjustment toner includes adjusting an amount of the adjustment toner to be applied according to the predefined gloss level; and heating the image applied with the adjustment toner at a nip unit composed of a fixing rotator and a pressing rotator. acquiring a predefined gloss level of the image; forming an image on a recording medium by using a color toner containing a release agent; applying an adjustment toner containing the release agent less than the color toner to the surface of forming an image on a recording medium by using a color toner containing a release agent; applying an adjustment toner containing the release agent less than the color toner to the surface of the image on the recording medium, wherein applying the adjustment toner includes adjusting an amount of the adjustment toner to be applied according to the predefined gloss level; and heating the image applied with the adjustment toner at a nip unit composed of a fixing rotator and a pressing rotator.
A plate, having two approximately parallel main sides, of a glass-ceramic or a glass, with a colored coating fixed to at least one part of the surface of one of said two main sides, said glass-ceramic or glass displaying a transparency allowing said colored coating to be perceptible through the thickness of said plate, characterized in that said colored coating essentially consists of a mixture of: (i) inorganic fillers, which ensure its coloration and its mechanical reinforcement, and (ii) at least one cross-linkable polysiloxane resin; said at least one cross-linkable polysiloxane resin being free or almost free from precursor(s) of carbon-containing material(s), its purity being of at least 95 % by weight; said at least one cross-linkable polysiloxane resin being selected from: - polydimethylsiloxanes, - polydiphenylsiloxanes, - phenylmethylsiloxane polymers, and - dimethylsiloxane-diphenylsiloxane copolymers; and in said at least one cross-linkable polysiloxane resin, said fillers (i) being distributed at a volume content of between 10 and 60 %. - polydimethylsiloxanes, - polydiphenylsiloxanes, - phenylmethylsiloxane polymers, and - dimethylsiloxane-diphenylsiloxane copolymers; and
Method for step rolling a metal strip, wherein the metal strip is unwound from an uncoiler device and is wound up by a coiler device, wherein during the rolling process, the metal strip is guided through a roll gap, formed between two work rolls (1, 2), and the roll gap is changed in a specific manner during the rolling process, wherein as a result, a strip thickness of the metal strip is changed stepwise in the longitudinal direction during the rolling process, characterised in that a strip tension, applied to the metal strip, is controlled in a specific manner so that the roll force, applied to the metal strip by the work rolls (1, 2), is constant during the rolling process.
Method for operating a network of luminaires, wherein the network of luminaires comprises a plurality of luminaires, in particular street lights, a plurality of control modules (1, 2, 23, 23', 28, 28') and a server, wherein each of said plurality of control modules is assigned to a respective one of said plurality of luminaires and comprises: - a long-range communication module, - a short-range communication module, - a geocoordinates module, - a controller, and - a control output for controlling a driver of the respective luminaire, the control output being adapted to output control signals for the driver of a luminous means of the respective luminaire, wherein the respective long-range communication module of each control module is adapted to reach said server, the method including the step of dividing the plurality of control modules (1, 2, 23, 23', 28, 28') into at least one group (A, B) of control modules, characterized in that said division into at least one group (A,B) of control modules is done in order to set up the network on the basis of environmental, luminaire and/or control module information provided by the control modules, characterized in that the method further comprises the following steps: • selecting by the server one of the control modules in each of said at least one group (A, B) of control modules as the group controller (2, 23', 28'), • forming a short-range network of control modules (1, 23, 28) within each of said at least one group (A, B) via the respective short-range communication modules, the control modules in each of said at least one group (A, B) communicating by means of their short-range communication modules, wherein in the normal operating state of the network of luminaires, only each group controller (2, 23', 28') transmits via the respective long-range communication module to the server, at least one of its own environmental, luminaire and control module information, and at least one of the environmental, luminaire and control module information received from the control modules (1, 23, 28) of its respective group via their short-range communication module, wherein said normal operating state is a control mode of the network of luminaires, in which each of said plurality of control modules is assigned to a respective one of said at least one group (A, B) of control modules and perform the control of the respective luminaire, and wherein, after successfully setting up the short-range network inside a respective one of the at least one group (A, B) of control modules, the respective group controller (2, 23', 28') reports the successful set up to the server. - a long-range communication module, - a short-range communication module, - a geocoordinates module, - a controller, and - a control output for controlling a driver of the respective luminaire, • selecting by the server one of the control modules in each of said at least one group (A, B) of control modules as the group controller (2, 23', 28'), • forming a short-range network of control modules (1, 23, 28) within each of said at least one group (A, B) via the respective short-range communication modules,